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Code Issues Packages Projects Releases 10 Wiki Activity

ipq807x: add certification support

Browse Source 
Fixes: WIFI-7055
Signed-off-by: John Crispin <john@phrozen.org>
This commit is contained in:
John Crispin
2022-01-17 14:32:13 +01:00
parent c6f7b415d0
commit eb9bdfaed9
140 changed files with 66652 additions and 0 deletions
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16
feeds/ipq807x/ipq807x/modules.mk
View File

@@ -95,3 +95,19 @@ define KernelPackage/usb-phy-ipq5018/description
endef
$(eval $(call KernelPackage,usb-phy-ipq5018))
define KernelPackage/diag-char
TITLE:=CHAR DIAG
KCONFIG:= CONFIG_DIAG_MHI=y@ge5.4 \
CONFIG_DIAG_OVER_PCIE=n@ge5.4 \
CONFIG_DIAGFWD_BRIDGE_CODE=y \
CONFIG_DIAG_CHAR=m
DEPENDS:=+kmod-lib-crc-ccitt
FILES:=$(LINUX_DIR)/drivers/char/diag/diagchar.ko
endef
define KernelPackage/diag-char/description
CHAR DIAG
endef
$(eval $(call KernelPackage,diag-char))

69
feeds/wifi-ax/ftm/Makefile Executable file
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@@ -0,0 +1,69 @@
include $(TOPDIR)/rules.mk
PKG:=ftm
PKG_NAME:=$(PKG)
PKG_RELEASE:=1
PKG_VERSION:=11.4-csu1
#PKG_BUILD_DIR:=$(BUILD_DIR)/$(PKG)
include $(INCLUDE_DIR)/package.mk
define Package/$(PKG_NAME)
SECTION:=QCA
CATEGORY:=QCA
URL:=http://www.qca.qualcomm.com
MAINTAINER:=Qualcomm Atheros
TITLE:= QCA ftm utils
DEPENDS:= @TARGET_ipq_ipq807x||TARGET_ipq_ipq807x_64||TARGET_ipq_ipq60xx||TARGET_ipq_ipq60xx_64||TARGET_ipq_ipq50xx||TARGET_ipq_ipq50xx_64||TARGET_ipq807x||TARGET_ipq50xx +libnl +libtcmd +qca-diag +librt +FEATURE_QCA_IOT:qca-IOT +FEATURE_QCA_IOT_IPQ50XX_SUPPORT:btdaemon +kmod-diag-char
endef
define Package/$(PKG_NAME)/description/Default
FTM Package Support for QCA WIFI 11 drivers
endef
TARGET_CFLAGS += -DCONFIG_FTM_WLAN -DDEBUG -DFTM_DEBUG -DWIN_AP_HOST
TARGET_CFLAGS += -I$(STAGING_DIR)/usr/include/qca-diag
TARGET_CFLAGS += -MMD -O2 -Wall -g
TARGET_CFLAGS += -I$(STAGING_DIR)/usr/include
TARGET_CFLAGS += -fpie
TARGET_LDFLAGS += -ldiag -lnl-3 -lnl-genl-3 -lrt -ltcmd
TARGET_CSRCS := ftm_main.c ftm_wlan.c ftm_write_to_flash.c
TARGET_LDFLAGS += -pie
ifneq ($(CONFIG_PACKAGE_kmod-ath11k),)
TARGET_CFLAGS+=-DWIN_AP_HOST_OPEN=1
endif
ifeq ($(CONFIG_FEATURE_QCA_IOT),y)
TARGET_CFLAGS += -DIPQ_AP_HOST_IOT -DIPQ_AP_HOST_IOT_QCA402X -ggdb3 -DCONFIG_DAEMON_MODE
TARGET_CSRCS += ftm_iot.c
TARGET_LDFLAGS += -lpthread
TARGET_CFLAGS += -I$(STAGING_DIR)/usr/include/qca-iot
TARGET_LDFLAGS += -ldiag_demo
endif
ifeq ($(CONFIG_FEATURE_QCA_IOT_IPQ50XX_SUPPORT),y)
TARGET_CFLAGS += -DIPQ_AP_HOST_IOT -DIPQ_AP_HOST_IOT_IPQ50XX -ggdb3 -I$(STAGING_DIR)/usr/include/btdaemon
TARGET_CSRCS += ftm_iot.c
TARGET_LDFLAGS += -lpthread -lbtdaemon
endif
define Build/Compile
$(MAKE) -C $(PKG_BUILD_DIR) \
CC="$(TARGET_CC)" \
CFLAGS="$(TARGET_CFLAGS)" \
LDFLAGS="$(TARGET_LDFLAGS)" \
CSRCS="$(TARGET_CSRCS)"
endef
define Package/$(PKG_NAME)/install
$(INSTALL_DIR) $(1)/usr/sbin
$(INSTALL_DIR) $(1)/etc/init.d
$(INSTALL_BIN) $(PKG_BUILD_DIR)/ftm $(1)/usr/sbin/
$(INSTALL_BIN) ./files/ftm.init $(1)/etc/init.d/ftm
$(INSTALL_DIR) $(1)/lib/wifi
$(INSTALL_BIN) ./files/compress_vart.sh $(1)/lib/compress_vart.sh
endef
$(eval $(call BuildPackage,ftm))

74
feeds/wifi-ax/ftm/files/compress_vart.sh Executable file
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@@ -0,0 +1,74 @@
#!/bin/sh
#
# Copyright (c) 2020 Qualcomm Technologies, Inc.
#
# All Rights Reserved.
# Confidential and Proprietary - Qualcomm Technologies, Inc.
#
#
[ -e /lib/ipq806x.sh ] && . /lib/ipq806x.sh
. /lib/functions.sh
low_mem_compress_art()
{
local mtdblock=$(find_mtd_part 0:ART)
if [ -z "$mtdblock" ]; then
# read from mmc
mtdblock=$(find_mmc_part 0:ART)
fi
[ -n "$mtdblock" ] || return
local apmp="/tmp"
lzma -zvfk -4 ${apmp}/virtual_art.bin 2> /dev/null || {
echo "Error Compressing Virtual ART" > /dev/console
return
}
dd if=${apmp}/virtual_art.bin.lzma of=${mtdblock}
echo "Success compressing Virtual ART(${mtdblock})" > /dev/console
return
}
normal_art()
{
local mtdblock=$(find_mtd_part 0:ART)
if [ -z "$mtdblock" ]; then
# read from mmc
mtdblock=$(find_mmc_part 0:ART)
fi
[ -n "$mtdblock" ] || return
local apmp="/tmp"
dd if=${apmp}/virtual_art.bin of=${mtdblock}
echo "Success writing to ART(${mtdblock})" > /dev/console
return
}
write_caldata()
{
local board
[ -f /tmp/sysinfo/board_name ] && {
board=ap$(cat /tmp/sysinfo/board_name | awk -F 'ap' '{print$2}')
}
if [ -e /sys/firmware/devicetree/base/compressed_art ]
then
echo "Compressed ART Supported Platform $board " > /dev/console
low_mem_compress_art
else
echo "Non Compressed ART Platform $board " > /dev/console
normal_art
fi
}
if [ "$1" = "write_caldata" ]
then
write_caldata
fi

97
feeds/wifi-ax/ftm/files/ftm.init Executable file
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@@ -0,0 +1,97 @@
#!/bin/sh /etc/rc.common
#
# Copyright (c) 2013, 2017, 2020 Qualcomm Technologies, Inc.
#
# All Rights Reserved.
# Confidential and Proprietary - Qualcomm Technologies, Inc.
#
# 2013 Qualcomm Atheros, Inc.
#
# All Rights Reserved.
# Qualcomm Atheros Confidential and Proprietary
#
. /lib/functions.sh
[ -e /lib/ipq806x.sh ] && . /lib/ipq806x.sh
START=97
SERVICE_DAEMONIZE=1
SERVICE_WRITE_PID=1
MTD_ART_PART_NAME="art"
compressed_art_read() {
local mtdblock=$(find_mtd_part 0:ART)
if [ -z "$mtdblock" ]; then
#read from mmc
mtdblock=$(find_mmc_part 0:ART)
fi
[ -n "$mtdblock" ] || return
local apmp="/tmp"
dd if=${mtdblock} of=${apmp}/virtual_art.bin.lzma
lzma -fdv --single-stream ${apmp}/virtual_art.bin.lzma || {
# Create dummy virtual_art.bin file of size 512K
dd if=/dev/zero of=${apmp}/virtual_art.bin bs=1024 count=512
}
echo "Uncompressed and Copied ART content from ${mtdblock} to /tmp/virtual_art.bin" > /dev/console
}
raw_art_read() {
local mtdblock=$(find_mtd_part 0:ART)
if [ -z "$mtdblock" ]; then
#read from mmc
mtdblock=$(find_mmc_part 0:ART)
fi
[ -n "$mtdblock" ] || return
local apmp="/tmp"
dd if=${mtdblock} of=${apmp}/virtual_art.bin
echo "Copy ART caldata from ${mtdblock} to /tmp/virtual_art.bin" > /dev/console
}
retrieve_caldata() {
local board
[ -f /tmp/sysinfo/board_name ] && {
board=ap$(cat /tmp/sysinfo/board_name | awk -F 'ap' '{print$2}')
}
echo "**** Platform Name: $board *****" > /dev/console
if [ -e /sys/firmware/devicetree/base/compressed_art ]
then
compressed_art_read
else
raw_art_read
fi
}
start() {
local emmc_flash=""
local nor_flash=""
emmc_flash=$(find_mmc_part 0:ART 2> /dev/null)
mtd_name=$(grep -i -w ${MTD_ART_PART_NAME} /proc/mtd | cut -f1 -d:)
nor_flash=`find /sys/bus/spi/devices/*/mtd -name ${mtd_name} 2> /dev/null`
if [ -n "$emmc_flash" ]; then
[ -L /dev/caldata ] || \
ln -s $emmc_flash /dev/caldata
elif [ -n "$nor_flash" ]; then
[ -L /dev/caldata ] || \
ln -s /dev/${mtd_name//mtd/mtdblock} /dev/caldata
elif [ -n "$mtd_name" ]; then
[ -L /dev/caldata ] || \
ln -s /dev/${mtd_name//mtd/mtdblock} /dev/caldata
fi
retrieve_caldata
}
stop() {
[ -L /dev/caldata ] && rm /dev/caldata
}

133
feeds/wifi-ax/ftm/src/Android.mk Executable file
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@@ -0,0 +1,133 @@
ifeq ($(call is-vendor-board-platform,QCOM),true)
# Build only if board has BT/FM/WLAN
ifeq ($(findstring true, $(BOARD_HAVE_QCOM_FM) $(BOARD_HAVE_BLUETOOTH) $(BOARD_HAS_ATH_WLAN_AR6320)),true)
LOCAL_PATH:= $(call my-dir)
BDROID_DIR:= system/bt
ifeq ($(TARGET_SUPPORTS_WEARABLES),true)
QTI_DIR := hardware/qcom/bt/msm8909/libbt-vendor
else
QTI_DIR := hardware/qcom/bt/libbt-vendor
endif
include $(CLEAR_VARS)
LOCAL_C_INCLUDES := $(TARGET_OUT_HEADERS)/diag/include \
LOCAL_C_INCLUDES += vendor/qcom/proprietary/diag/src \
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/common/inc \
LOCAL_C_INCLUDES += vendor/qcom/proprietary/bt/hci_qcomm_init \
LOCAL_C_INCLUDES += vendor/qcom/opensource/fm/helium \
LOCAL_C_INCLUDES += $(TARGET_OUT_INTERMEDIATES)/KERNEL_OBJ/usr/include \
LOCAL_C_INCLUDES += $(BDROID_DIR)/hci/include \
LOCAL_C_INCLUDES += $(QTI_DIR)/include
ifeq ($(TARGET_SUPPORTS_WEARABLES),true)
LOCAL_C_INCLUDES += device/qcom/msm8909w/opensource/bluetooth/tools/hidl_client/inc
else
LOCAL_C_INCLUDES += vendor/qcom/opensource/bluetooth/tools/hidl_client/inc
endif
LOCAL_ADDITIONAL_DEPENDENCIES := $(TARGET_OUT_INTERMEDIATES)/KERNEL_OBJ/usr
LOCAL_CFLAGS:= \
-DANDROID \
-DDEBUG
#LOCAL_CFLAGS += -include bionic/libc/include/sys/socket.h
#LOCAL_CFLAGS += -include bionic/libc/include/netinet/in.h
ifneq ($(DISABLE_BT_FTM),true)
LOCAL_CFLAGS += -DCONFIG_FTM_BT
endif
ifeq ($(BOARD_HAVE_QCOM_FM),true)
LOCAL_CFLAGS += -DCONFIG_FTM_FM
endif
ifeq ($(BOARD_HAS_QCA_FM_SOC), "cherokee")
LOCAL_CFLAGS += -DFM_SOC_TYPE_CHEROKEE
endif
ifneq ($(BOARD_ANT_WIRELESS_DEVICE), )
LOCAL_CFLAGS += -DCONFIG_FTM_ANT
endif
LOCAL_CFLAGS += -DCONFIG_FTM_NFC
ifeq ($(BOARD_HAVE_BLUETOOTH_BLUEZ), true)
LOCAL_CFLAGS += -DHAS_BLUEZ_BUILDCFG
endif # BOARD_HAVE_BLUETOOTH_BLUEZ
LOCAL_SRC_FILES:= \
ftm_main.c \
ftm_nfc.c \
ftm_nfcnq.c \
ftm_nfcqti.c \
ftm_nfcnq_fwdl.c \
ftm_nfcnq_test.c
ifneq ($(DISABLE_BT_FTM),true)
LOCAL_SRC_FILES += \
ftm_bt.c \
ftm_bt_power_pfal_linux.c \
ftm_bt_hci_pfal_linux.c \
ftm_bt_persist.cpp
endif
ifeq ($(call is-platform-sdk-version-at-least,23),true)
LOCAL_CFLAGS += -DANDROID_M
endif
ifeq ($(BOARD_HAVE_QCOM_FM),true)
ifeq ($(BOARD_HAS_QCA_FM_SOC), "cherokee")
LOCAL_SRC_FILES += ftm_fm.c ftm_fm_pfal_linux_3990.c
else
LOCAL_SRC_FILES += ftm_fm.c ftm_fm_pfal_linux.c
endif
endif
ifneq ($(BOARD_ANT_WIRELESS_DEVICE), )
LOCAL_SRC_FILES += ftm_ant.c
endif
ifeq ($(findstring true, $(BOARD_HAS_ATH_WLAN) $(BOARD_HAS_ATH_WLAN_AR6320)),true)
LOCAL_CFLAGS += -DBOARD_HAS_ATH_WLAN_AR6320
LOCAL_CFLAGS += -DCONFIG_FTM_WLAN
LOCAL_CFLAGS += -DCONFIG_FTM_WLAN_AUTOLOAD
LOCAL_STATIC_LIBRARIES += libtcmd
LOCAL_SHARED_LIBRARIES += libnl
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/libtcmd
LOCAL_SRC_FILES += ftm_wlan.c
endif
LOCAL_SHARED_LIBRARIES += libdl
ifneq ($(DISABLE_BT_FTM),true)
LOCAL_SHARED_LIBRARIES += libbt-hidlclient
endif
LOCAL_MODULE_PATH := $(TARGET_OUT_VENDOR_EXECUTABLES)
LOCAL_MODULE:= ftmdaemon
LOCAL_CLANG := true
ifeq ($(PRODUCT_VENDOR_MOVE_ENABLED),true)
LOCAL_PROPRIETARY_MODULE := true
endif
LOCAL_MODULE_TAGS := optional
LOCAL_SHARED_LIBRARIES += libdiag
LOCAL_SHARED_LIBRARIES += libcutils liblog libhardware
ifneq ($(DISABLE_BT_FTM),true)
LOCAL_SHARED_LIBRARIES += libbtnv
endif
# By default NV persist gets used
LOCAL_CFLAGS += -DBT_NV_SUPPORT
LDFLAGS += -ldl
include $(BUILD_EXECUTABLE)
include $(call all-makefiles-under,$(LOCAL_PATH))
endif # filter
endif # is-vendor-board-platform

181
feeds/wifi-ax/ftm/src/LICENSE Executable file
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@@ -0,0 +1,181 @@
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the licenses herein, but see NOTICE for license terms of this software.
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12
feeds/wifi-ax/ftm/src/Makefile Executable file
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@@ -0,0 +1,12 @@
#CC := $(ATH_CROSS_COMPILE_TYPE)gcc
TARGET_TYPE ?= AR9888
TARGET_VERS ?= v2
#Sources to compile
CSRCS := ftm_main.c ftm_wlan.c ftm_write_to_flash.c
all:
$(CC) $(CFLAGS) $(LDFLAGS) -g3 -Wall \
$(CSRCS) -o ftm
clean:
rm -f ftm

86
feeds/wifi-ax/ftm/src/Makefile.am Executable file
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@@ -0,0 +1,86 @@
AM_CFLAGS = -Wall \
-g -O0 \
$(DIAG_CFLAGS)
AM_CPPFLAGS = -Wall \
-g -O0 \
$(DIAG_CFLAGS)
AM_CFLAGS += -I${WORKSPACE}/system/bt/hci/include
AM_CFLAGS += -I${WORKSPACE}/vendor/qcom/proprietary/bt/hci_qcomm_init/
AM_CPPFLAGS += -I${WORKSPACE}/system/bt/hci/include
AM_CPPFLAGS += -I${WORKSPACE}/vendor/qcom/proprietary/bt/hci_qcomm_init/
if DEBUG
AM_CFLAGS += -DDEBUG
AM_CPPFLAGS += -DDEBUG
endif
requiredlibs = -lrt $(DIAG_LIBS)
if USE_GLIB
AM_CFLAGS += -DUSE_GLIB $(GLIB_CFLAGS)
AM_CPPFLAGS += -DUSE_GLIB $(GLIB_CFLAGS)
requiredlibs += $(GLIB_LIBS)
endif
#By default build for MDM_LE
AM_CFLAGS += -DMDM_LE
AM_CPPFLAGS += -DMDM_LE
if MDM_ROME
AM_CFLAGS += -DBT_SOC_TYPE_ROME
AM_CPPFLAGS += -DBT_SOC_TYPE_ROME
else
if MDM_PRONTO
AM_CFLAGS += -DHCI_USE_MCT
AM_CPPFLAGS += -DHCI_USE_MCT
endif
endif
c_sources = ftm_main.c
if CONFIG_FTM_BT
AM_CFLAGS += -DCONFIG_FTM_BT -DBT_NV_SUPPORT
AM_CPPFLAGS += -DCONFIG_FTM_BT -DBT_NV_SUPPORT
c_sources += ftm_bt.c
c_sources += ftm_bt_power_pfal_linux.c
c_sources += ftm_bt_hci_pfal_linux.c
c_sources += ftm_bt_persist.cpp
endif
if CONFIG_FTM_FM
AM_CFLAGS += -DCONFIG_FTM_FM
c_sources += ftm_fm.c
c_sources += ftm_fm_pfal_linux.c
endif
if CONFIG_FTM_ANT
AM_CFLAGS += -DCONFIG_FTM_ANT
c_sources += ftm_ant.c
endif
if CONFIG_FTM_NFC
AM_CFLAGS += -DCONFIG_FTM_NFC
c_sources += ftm_nfc.c
c_sources += ftm_nfcnq.c
c_sources += ftm_nfcqti.c
c_sources += ftm_nfcnq_fwdl.c
c_sources += ftm_nfcnq_test.c
endif
if CONFIG_FTM_WLAN
AM_CFLAGS += -DCONFIG_FTM_WLAN -DCONFIG_FTM_WLAN_AUTOLOAD
AM_CFLAGS += $(LIBNL_CFLAGS) $(ATH6KL_UTILS_CFLAGS)
AM_CPPFLAGS += $(LIBNL_CFLAGS) $(ATH6KL_UTILS_CFLAGS)
requiredlibs += $(ATH6KL_UTILS_LIBS) $(LIBNL_LIBS)
c_sources += ftm_wlan.c
endif
ftmdaemon_SOURCES = $(c_sources)
ftmdaemon_LDADD = -ldl $(requiredlibs) -lbtnv
bin_PROGRAMS = ftmdaemon

72
feeds/wifi-ax/ftm/src/NOTICE Executable file
View File

@@ -0,0 +1,72 @@
This NOTICE file contains certain notices of software components included
with the software that Qualcomm Technologies, Inc. ("Qualcomm Technologies")
is required to provide you. Notwithstanding anything in the notices in this
file, your use of these software components together with the
Qualcomm Technologies software (Qualcomm Technologies software hereinafter
referred to as "Software") is subject to the terms of your license from
Qualcomm Technologies. Compliance with all copyright laws and software
license agreements included in the notice section of this file are the
responsibility of the user. Except as may be granted by separate express
written agreement, this file provides no license to any patents,
trademarks, copyrights, or other intellectual property.
Copyright (c) 2016 Qualcomm Technologies, Inc.
All rights reserved.
Qualcomm is a registered trademark and registered service mark of
QUALCOMM Incorporated. All other trademarks and service marks are the
property of their respective owners.
________________________________________
NOTICES
________________________________________
Copyright (C) 2010 The Android Open Source Project
Licensed under the Apache License, Version 2.0 (the "License");
you may not use this file except in compliance with the License.
You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing, software
distributed under the License is distributed on an "AS IS" BASIS,
WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
See the License for the specific language governing permissions and
limitations under the License.
________________________________________
Copyright (C) 2015 NXP Semiconductors
The original Work has been changed by NXP Semiconductors.
Licensed under the Apache License, Version 2.0 (the "License");
you may not use this file except in compliance with the License.
You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing, software
distributed under the License is distributed on an "AS IS" BASIS,
WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
See the License for the specific language governing permissions and
limitations under the License.
________________________________________
Copyright (C) 2015 The Android Open Source Project
Licensed under the Apache License, Version 2.0 (the "License");
you may not use this file except in compliance with the License.
You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing, software
distributed under the License is distributed on an "AS IS" BASIS,
WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
See the License for the specific language governing permissions and
limitations under the License.
________________________________________
Note: Any files for which the above Apache License notices are required
to be provided are not contributions.
A copy of the Apache 2.0 license is included in the file LICENSE
for attribution purposes only.

149
feeds/wifi-ax/ftm/src/configure.ac Executable file
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# -*- Autoconf -*-
# configure.ac -- Autoconf script for ftm.
#
# Process this file with autoconf to produce a configure script
# Requires autoconf tool later than 2.61
AC_PREREQ(2.61)
# Initialize the ftm package version 1.0.0
AC_INIT([ftm],1.0.0)
# Does not strictly follow GNU Coding standards
AM_INIT_AUTOMAKE([foreign])
# Disables auto rebuilding of configure, Makefile.ins
AM_MAINTAINER_MODE
# defines some macros variable to be included by source
AC_CONFIG_HEADERS([config.h])
AC_CONFIG_MACRO_DIR([m4])
# Checks for programs.
AC_PROG_CC
AC_PROG_CXX
AM_PROG_CC_C_O
AC_PROG_LIBTOOL
AC_PROG_AWK
AC_PROG_CPP
AC_PROG_INSTALL
AC_PROG_LN_S
AC_PROG_MAKE_SET
# Checks for libraries.
PKG_CHECK_MODULES([DIAG], [diag])
AC_SUBST([DIAG_CFLAGS])
AC_SUBST([DIAG_LIBS])
has_libnl_ver=0
# libnl-2 provides only libnl-2.0.pc file, so we check for separate libnl-genl-3.0.pc
# pkg-config file just for libnl-3.0 case.
#
PKG_CHECK_MODULES([LIBNL], [libnl-3.0 >= 3.0 libnl-genl-3.0 >= 3.0], [has_libnl_ver=3], [
PKG_CHECK_MODULES([LIBNL], [libnl-2.0 >= 2.0], [has_libnl_ver=2], [
PKG_CHECK_MODULES([LIBNL], [libnl-1], [has_libnl_ver=1], [has_libnl_ver=0])])])
if (test "$has_libnl_ver" -eq 0); then
AC_MSG_ERROR(libnl and libnl-genl are required but were not found)
fi
if (test "$has_libnl_ver" -gt 1); then
AC_DEFINE([HAVE_LIBNL20], [1], [Define if you have libnl-2.0 or higher])
fi
AC_SUBST([LIBNL_CFLAGS])
AC_SUBST([LIBNL_LIBS])
PKG_CHECK_MODULES([ATH6KL_UTILS], [ath6kl-utils])
AC_SUBST([ATH6KL_UTILS_CFLAGS])
AC_SUBST([ATH6KL_UTILS_LIBS])
AC_ARG_WITH([glib],
AC_HELP_STRING([--with-glib],
[enable glib, building FTM Daemon which use glib]))
if (test "x${with_glib}" = "xyes"); then
PKG_CHECK_MODULES(GTHREAD, gthread-2.0 >= 2.16, dummy=yes,
AC_MSG_ERROR(GThread >= 2.16 is required))
PKG_CHECK_MODULES(GLIB, glib-2.0 >= 2.16, dummy=yes,
AC_MSG_ERROR(GLib >= 2.16 is required))
GLIB_CFLAGS="$GLIB_CFLAGS $GTHREAD_CFLAGS"
GLIB_LIBS="$GLIB_LIBS $GTHREAD_LIBS"
AC_SUBST(GLIB_CFLAGS)
AC_SUBST(GLIB_LIBS)
fi
AM_CONDITIONAL(USE_GLIB, test "x${with_glib}" = "xyes")
AC_ARG_ENABLE([debug],
[ --enable-debug Turn on debugging],
[case "${enableval}" in
yes) debug=true ;;
no) debug=false ;;
*) AC_MSG_ERROR([bad value ${enableval} for --enable-debug]) ;;
esac],[debug=false])
AM_CONDITIONAL([DEBUG], [test x$debug = xtrue])
AC_ARG_ENABLE([all],
[ --enable-all Enable all FTM functionality],
[case "${enableval}" in
yes) all=true ;;
no) all=false ;;
*) AC_MSG_ERROR([bad value ${enableval} for --enable-all]) ;;
esac],[all=false])
AM_CONDITIONAL([CONFIG_FTM_BT], [test x$all = xtrue])
AM_CONDITIONAL([CONFIG_FTM_FM], [test x$all = xtrue])
AM_CONDITIONAL([CONFIG_FTM_ANT], [test x$all = xtrue])
AM_CONDITIONAL([CONFIG_FTM_NFC], [test x$all = xtrue])
AC_ARG_ENABLE([wlan],
[ --enable-wlan Enable WLAN FTM functionality],
[case "${enableval}" in
yes) wlan=true ;;
no) wlan=false ;;
*) AC_MSG_ERROR([bad value ${enableval} for --enable-wlan]) ;;
esac],[wlan=false])
AM_CONDITIONAL([CONFIG_FTM_WLAN], [test x$wlan = xtrue -o x$all = xtrue])
AC_ARG_ENABLE([bt],
[ --enable-bt Enable BT FTM functionality],
[case "${enableval}" in
yes) bt=true ;;
no) bt=false ;;
*) AC_MSG_ERROR([bad value ${enableval} for --enable-bt]) ;;
esac],[bt=false])
AM_CONDITIONAL([CONFIG_FTM_BT], [test x$bt = xtrue -o x$all = xtrue])
AC_ARG_ENABLE(target,
[AS_HELP_STRING([--enable-target=TARGET], [Specify the target product to build])],
[TARGET=$enableval],
[TARGET=none]
)
AM_CONDITIONAL([MDM_ROME], [test "x$TARGET" = "xmdm9607" -o "x$TARGET" = "xmdm9635" -o "x$TARGET" = "xmdm9640" -o "x$TARGET" = "xmdmcalifornium"])
AM_CONDITIONAL([MDM_PRONTO], [test "x$TARGET" = "xapq8009" -o "x$TARGET" = "xapq8017" -o "x$TARGET" = "xapq8053"])
# Checks for typedefs, structures, and compiler characteristics.
AC_HEADER_STDBOOL
AC_HEADER_STDC
AC_C_INLINE
AC_TYPE_INT64_T
AC_TYPE_PID_T
AC_TYPE_SIZE_T
AC_TYPE_SSIZE_T
AC_TYPE_UINT16_T
AC_TYPE_UINT32_T
AC_TYPE_UINT8_T
# Checks for library functions.
AC_FUNC_ERROR_AT_LINE
AC_FUNC_FORK
AC_FUNC_MALLOC
AC_CONFIG_FILES([ \
Makefile \
])
AC_OUTPUT

585
feeds/wifi-ax/ftm/src/ftm_ant.c Executable file
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@@ -0,0 +1,585 @@
/*==========================================================================
FTM ANT Source File
Description
FTM platform independent processing of packet data
# Copyright (c) 2010-2012 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
05/16/12 ankurn Adding support for ANT commands
11/28/12 c_ssugas implements efficent method for Ant cmd transfer
and implements Rx thread for event handling.
===========================================================================*/
#include "event.h"
#include "msg.h"
#include "log.h"
#include "diag_lsm.h"
#include "diagpkt.h"
#include "diagcmd.h"
#include "diag.h"
#include "termios.h"
#include <errno.h>
#include <fcntl.h>
#include <sys/ioctl.h>
#include <sys/socket.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <stdlib.h>
#include <pthread.h>
#include <stdio.h>
#include <stdbool.h>
#include <dlfcn.h>
#include "bt_vendor_qcom.h"
#include "ftm_ant_common.h"
#include "ftm_bt.h"
#include <string.h>
#include "hidl_client.h"
#ifdef ANDROID
#include <cutils/properties.h>
#endif
#ifdef ANDROID
extern int soc_type;
#endif
#define ANT_CTRL_PACKET_TYPE 0x0c
#define ANT_DATA_PACKET_TYPE 0x0e
#define UNUSED(x) (void)(x)
int init_transport_ant(int on);
// The following functions are dummy implementations of the callbacks required by libbt-vendor.
static void vendor_fwcfg_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_scocfg_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_lpm_vnd_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_audio_state_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void* vendor_alloc(int size) {
UNUSED(size);
return NULL;
}
static void vendor_dealloc(void *p_buf) {
UNUSED(p_buf);
}
static uint8_t vendor_xmit_cb(uint16_t opcode, void *p_buf, tINT_CMD_CBACK p_cback) {
UNUSED(opcode);
UNUSED(p_buf);
UNUSED(p_cback);
return 0;
}
static void vendor_epilog_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_a2dp_offload_cb(bt_vendor_op_result_t result, bt_vendor_opcode_t op, unsigned char handle) {
UNUSED(result);
UNUSED(op);
UNUSED(handle);
}
// This struct is used to regsiter the dummy callbacks with libbt-vendor
static bt_vendor_interface_t *vendor_interface=NULL;
static const bt_vendor_callbacks_t vendor_callbacks = {
sizeof(bt_vendor_callbacks_t),
vendor_fwcfg_cb,
vendor_scocfg_cb,
vendor_lpm_vnd_cb,
vendor_audio_state_cb,
vendor_alloc,
vendor_dealloc,
vendor_xmit_cb,
vendor_epilog_cb,
vendor_a2dp_offload_cb
};
/* Transport file descriptor */
int fd_transport_ant_cmd;
extern int first_ant_command;
/* Reader thread handle */
pthread_t ant_cmd_thread_hdl;
/* Pipe file descriptors for cancelling read operation */
int ant_pipefd[2];
/* Enable FTM_DEBUG to turn on Debug messages */
//#define FTM_DEBUG
/*===========================================================================
FUNCTION ftm_ant_readerthread
DESCRIPTION
Thread Routine to perfom asynchrounous handling of events coming on Smd
descriptor. It invokes a callback to the FTM ANT layer to intiate a request
to read event bytes.
DEPENDENCIES
The LifeTime of ReaderThraad is dependent on the status returned by the
call to ftm_ant_qcomm_handle_event
RETURN VALUE
RETURN NULL
SIDE EFFECTS
None
===========================================================================*/
void *ftm_ant_readerthread(void *ptr)
{
boolean status = FALSE;
int retval;
fd_set readfds;
int buf;
UNUSED(ptr);
#ifdef FTM_DEBUG
printf("ftm_ant_readerthread --> \n");
#endif
do
{
FD_ZERO(&readfds);
FD_SET(fd_transport_ant_cmd, &readfds);
FD_SET(ant_pipefd[0],&readfds);
retval = select((fd_transport_ant_cmd>ant_pipefd[0]?fd_transport_ant_cmd
:ant_pipefd[0]) + 1, &readfds, NULL, NULL, NULL);
if(retval == -1)
{
printf("select failed\n");
break;
}
if(FD_ISSET(ant_pipefd[0],&readfds))
{
#ifdef FTM_DEBUG
printf("Pipe descriptor set\n");
#endif
read(ant_pipefd[0],&buf,1);
if(buf == 1)
break;
}
if(FD_ISSET(fd_transport_ant_cmd,&readfds))
{
#ifdef FTM_DEBUG
printf("Read descriptor set\n");
#endif
status = ftm_ant_qcomm_handle_event();
if(TRUE != status)
break;
}
}
while(1);
#ifdef FTM_DEBUG
printf("\nReader thread exited\n");
#endif
return 0;
}
/*===========================================================================
FUNCTION ftm_ant_open_channel
DESCRIPTION
Open the SMD transport associated with ANT
DEPENDENCIES
NIL
RETURN VALUE
int value indicating success or failure
SIDE EFFECTS
NONE
===========================================================================*/
static bool ftm_ant_open_channel()
{
struct termios term_port;
int opts;
printf("%s: \n",__func__ );
switch (soc_type)
{
case BT_SOC_ROME:
case BT_SOC_CHEROKEE:
case BT_SOC_NAPIER:
//Use hidl_client_initialize for chip initialization
if (hidl_client_initialize(MODE_ANT,&fd_transport_ant_cmd) == false) {
printf("%s: HIDL client initialization failed, opening port with init_transpor_ant\n", __func__);
//Use libbt-vendor for chip initialization
fd_transport_ant_cmd = init_transport_ant(TRUE);
if (fd_transport_ant_cmd == -1) {
printf("%s: ANT Device open Failed, fd:%d: \n", __func__, fd_transport_ant_cmd);
return false;
}
}
break;
case BT_SOC_AR3K:
case BT_SOC_SMD:
#ifdef FTM_DEBUG
printf("ftm_ant_open_channel --> \n");
#endif
fd_transport_ant_cmd = open(APPS_RIVA_ANT_CMD_CH, (O_RDWR));
if (fd_transport_ant_cmd == -1) {
printf("Ant Device open Failed= %d\n ", fd_transport_ant_cmd);
return false;
}
// Blocking Read
opts = fcntl(fd_transport_ant_cmd, F_GETFL);
if (opts < 0) {
perror("fcntl(F_GETFL)");
exit(EXIT_FAILURE);
}
opts = opts & (~O_NONBLOCK);
if (fcntl(fd_transport_ant_cmd, F_SETFL, opts) < 0) {
perror("fcntl(F_SETFL)");
exit(EXIT_FAILURE);
}
if (tcgetattr(fd_transport_ant_cmd, &term_port) < 0)
close(fd_transport_ant_cmd);
cfmakeraw(&term_port);
if (tcsetattr(fd_transport_ant_cmd, TCSANOW, &term_port) < 0) {
printf("\n Error while setting attributes\n");
return false;
}
tcflush(fd_transport_ant_cmd, TCIFLUSH);
#ifdef FTM_DEBUG
printf("ftm_ant_open_channel success \n");
#endif
break;
default:
ALOGE("%s:Unknown soc type.",__func__);
return false;
}
if (pipe(ant_pipefd) == -1)
{
printf("pipe create error");
return STATUS_FAIL;
}
/* Creating read thread which listens for various masks & pkt requests */
pthread_create( &ant_cmd_thread_hdl, NULL, ftm_ant_readerthread, NULL);
return true;
}
int init_transport_ant(int on) {
void *so_handle;
unsigned char bdaddr[] = {0x01, 0x02, 0x03, 0x04, 0x05, 0x06};
int fd[CH_MAX], powerstate, ret = -1;
char ref_count[PROPERTY_VALUE_MAX];
int value;
if (on) {
so_handle = dlopen("libbt-vendor.so", RTLD_NOW);
if (!so_handle)
{
ALOGE("Failed to load vendor component");
return -1;
}
vendor_interface = (bt_vendor_interface_t *) dlsym(so_handle, "BLUETOOTH_VENDOR_LIB_INTERFACE");
if (!vendor_interface)
{
ALOGE("Failed to accesst bt vendor interface");
return -1;
}
vendor_interface->init(&vendor_callbacks, bdaddr);
ALOGI("Turn On BT power");
powerstate = BT_VND_PWR_ON;
ret = vendor_interface->op(BT_VND_OP_POWER_CTRL, &powerstate);
if (ret < 0)
{
ALOGE("Failed to turn on power from bt vendor interface");
return -1;
}
for (int i = 0; i < CH_MAX; i++)
fd[i] = -1;
#ifdef ANDROID
if (soc_type == BT_SOC_ROME || soc_type == BT_SOC_CHEROKEE || soc_type == BT_SOC_NAPIER) {
/*call ANT_USERIAL_OPEN to get ANT handle*/
ret = vendor_interface->op((bt_vendor_opcode_t)BT_VND_OP_ANT_USERIAL_OPEN, fd);
}
#else
#ifdef BT_SOC_TYPE_ROME
/*call ANT_USERIAL_OPEN to get ANT handle*/
ret = vendor_interface->op((bt_vendor_opcode_t)BT_VND_OP_ANT_USERIAL_OPEN, fd);
#endif
#endif
ALOGE("ret value: %d", ret);
if (ret != 1)
{
ALOGE("Failed to get fd from bt vendor interface");
return -1;
} else {
ALOGE("FD: %x", fd[0]);
return fd[0];
}
} else {
if (vendor_interface) {
ALOGE("Close and cleanup the interfaces");
#ifdef ANDROID
if (soc_type == BT_SOC_ROME || soc_type == BT_SOC_CHEROKEE || soc_type == BT_SOC_NAPIER) {
int ret = vendor_interface->op((bt_vendor_opcode_t)BT_VND_OP_ANT_USERIAL_CLOSE, NULL);
}
#else
#ifdef BT_SOC_TYPE_ROME
int ret = vendor_interface->op((bt_vendor_opcode_t)BT_VND_OP_ANT_USERIAL_CLOSE, NULL);
#endif
#endif
ALOGE("ret value: %d", ret);
ALOGI("Turn off BT power");
powerstate = BT_VND_PWR_OFF;
ret = vendor_interface->op(BT_VND_OP_POWER_CTRL, &powerstate);
if (ret < 0)
{
ALOGE("Failed to turn off power from bt vendor interface");
return -1;
}
vendor_interface->cleanup();
vendor_interface = NULL;
return 0;
} else {
ALOGE("Not able to find vendor interface handle");
return -1;
}
}
}
/*===========================================================================
FUNCTION ftm_log_send_msg
DESCRIPTION
Processes the buffer sent and sends it to the libdiag for sending the Cmd
response
DEPENDENCIES
NIL
RETURN VALUE
NIL
SIDE EFFECTS
None
===========================================================================*/
void ftm_ant_log_send_msg(const uint8 *pEventBuf,int event_bytes)
{
int result = log_status(LOG_FTM_VER_2_C);
ftm_ant_log_pkt_type* ftm_ant_log_pkt_ptr = NULL;
if((pEventBuf == NULL) || (event_bytes == 0))
return;
#ifdef FTM_DEBUG
printf("ftm_ant_log_send_msg --> \n");
#endif
if(result == 1)
{
ftm_ant_log_pkt_ptr = (ftm_ant_log_pkt_type *)log_alloc(LOG_FTM_VER_2_C,
FTM_ANT_LOG_HEADER_SIZE + (event_bytes-1));
if(ftm_ant_log_pkt_ptr != NULL)
{
/* FTM ANT Log PacketID */
ftm_ant_log_pkt_ptr->ftm_log_id = FTM_ANT_LOG_PKT_ID;
memcpy((void *)ftm_ant_log_pkt_ptr->data,(void *)pEventBuf,event_bytes);
log_commit( ftm_ant_log_pkt_ptr );
}
}
}
/*===========================================================================
FUNCTION ftm_ant_dispatch
DESCRIPTION
Dispatch routine for the various FM Rx/Tx commands. Copies the data into
a global union data structure before calling the processing routine
DEPENDENCIES
NIL
RETURN VALUE
A Packed structre pointer including the response to the FTM FM packet
SIDE EFFECTS
None
===========================================================================*/
void * ftm_ant_dispatch(ftm_ant_pkt_type *ant_ftm_pkt, uint16 pkt_len)
{
ftm_ant_generic_sudo_res *rsp;
int err = 0, i;
int data_len = ant_ftm_pkt->cmd_data_len;
bool resp = false;
unsigned char *pdata = NULL, *ptemp;
#ifdef FTM_DEBUG
printf("ftm_ant_dispatch --> \n");
#endif
UNUSED(pkt_len);
if (first_ant_command == 0) {
first_ant_command = 1;
ftm_ant_open_channel();
}
rsp = (ftm_ant_generic_sudo_res*)diagpkt_subsys_alloc( DIAG_SUBSYS_FTM
, FTM_ANT_CMD_CODE
, sizeof(ftm_ant_generic_sudo_res)
);
if(rsp == NULL)
{
printf("%s Failed to allocate resource",__func__);
return NULL;
}
switch (soc_type) {
//Rome shares the same UART transport for ANT and BT. Hence, to differenciate the
//packets by controller, adding one extra byte for ANT data and control packets
case BT_SOC_ROME:
case BT_SOC_CHEROKEE:
case BT_SOC_NAPIER:
data_len = data_len + 1;
pdata = (unsigned char *) malloc(data_len);
if (pdata == NULL) {
ALOGE("Failed to allocate the memory for ANT command packet");
rsp->result = FTM_ANT_FAIL;
return (void *) rsp;
}
//To be compatible with Legacy, SMD based PLs, send all the packets
//with cmd opcode 0x0c
pdata[0] = 0x0c;
memcpy(pdata+1, ant_ftm_pkt->data, data_len-1);
err = write(fd_transport_ant_cmd, pdata, data_len);
ptemp = pdata;
break;
case BT_SOC_AR3K:
case BT_SOC_SMD:
/* Send the packet to controller and send a dummy response back to host*/
err = write(fd_transport_ant_cmd, ant_ftm_pkt->data, data_len);
ptemp = ant_ftm_pkt->data;
break;
default:
ALOGE("%s:Unknown soc type", __func__);
break;
}
if (err == data_len) {
rsp->result = FTM_ANT_SUCCESS;
printf("ANT CMD: ");
for (i = 1; i<data_len; i++) {
printf("%02X ", ptemp[i]);
}
printf("\n");
} else {
rsp->result = FTM_ANT_FAIL;
printf("FTM ANT write fail len: %d\n", err);
}
if (pdata)
free(pdata);
return (void *)rsp;
}
/*===========================================================================
FUNCTION ftm_bt_hci_qcomm_handle_event
DESCRIPTION
Routine called by the HAL layer reader thread to process the HCI events
The post conditions of each event is covered in a state machine pattern
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_ant_qcomm_handle_event ()
{
boolean status = TRUE;
int nbytes,i,len =0;
int event_type;
ftm_ant_generic_res *res = (ftm_ant_generic_res *)diagpkt_subsys_alloc(
DIAG_SUBSYS_FTM
, FTM_ANT_CMD_CODE
, sizeof(ftm_ant_generic_res)
);
if(res == NULL)
{
printf("%s Failed to allocate res",__func__);
tcflush(fd_transport_ant_cmd, TCIFLUSH);
return FALSE;
}
#ifdef FTM_DEBUG
printf("ftm_ant_hci_qcomm_handle_event --> \n");
#endif
/* Read length and event type of Ant Resp event*/
nbytes = read(fd_transport_ant_cmd, (void *)res->evt, 2);
if(nbytes <= 0) {
status = FALSE;
printf("ftm_ant_qcomm_handle_event read fail len=%d\n", nbytes);
return status;
}
event_type = res->evt[0];
len = res->evt[1];
#ifdef FTM_DEBUG
printf(" event type =%d\n",event_type);
printf("length of event =%d\n",len);
#endif
/* Read out the Ant Resp event*/
if (len <= (int)sizeof(res->evt))
{
nbytes = read(fd_transport_ant_cmd, (void *)res->evt, len);
if (nbytes != len) {
res->result = FTM_ANT_FAIL;
status = FALSE;
printf("ftm_ant_qcomm_handle_event read fail len=%d\n", nbytes);
}
else {
res->result = FTM_ANT_SUCCESS;
printf("ANT EVT: ");
for (i=0; i<nbytes; i++) {
printf("%02X ", res->evt[i]);
}
printf("\n");
ftm_ant_log_send_msg(res->evt, nbytes);
tcflush(fd_transport_ant_cmd, TCIOFLUSH);
}
}
else
{
res->result = FTM_ANT_FAIL;
status = FALSE;
printf("ftm_ant_qcomm_handle_event read fail len=%d is more than sizeof(res->evt)=%d\n", len, (int)sizeof(res->evt));
}
return status;
}

124
feeds/wifi-ax/ftm/src/ftm_ant_common.h Executable file
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@@ -0,0 +1,124 @@
/*==========================================================================
FTM FM Common Header File
Description
Global Data declarations of the ftm ant component.
# Copyright (c) 2012,2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
05/16/2012 ankurn Adding support for ANT+
11/28/12 c_ssugas Adds data structures and macro for ant log event support.
===========================================================================*/
#ifdef CONFIG_FTM_ANT
#include "diagpkt.h"
#include "log.h"
#include "ftm_bt_common.h"
#include <sys/types.h>
#define APPS_RIVA_ANT_CMD_CH "/dev/smd5"
#define APPS_RIVA_ANT_DATA_CH "/dev/smd6"
#define FTM_ANT_CMD_CODE 94
#define OPCODE_OFFSET 5
#define FTM_ANT_LOG_HEADER_SIZE (sizeof(ftm_ant_log_pkt_type) - 1)
#define FTM_ANT_LOG_PKT_ID 0x0D
/* FTM Log Packet - Used to send back the event of a ANT Command */
typedef PACKED struct
{
log_hdr_type hdr;
word ftm_log_id; /* FTM log id */
byte data[1]; /* Variable length payload,
look at FTM log id for contents */
} ftm_ant_log_pkt_type;
/* Generic result, used for any command that only returns an error code */
typedef enum {
FTM_ANT_FAIL,
FTM_ANT_SUCCESS,
} ftm_ant_api_result_type;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
} ftm_ant_generic_sudo_res;
/* Generic Response */
typedef PACKED struct
{
diagpkt_subsys_header_type header; /*Diag header*/
uint8 evt[18]; /*allocates memory to hold longest valid event */
char result; /* result */
}__attribute__((packed)) ftm_ant_generic_res;
/* FTM ANT request type */
typedef PACKED struct
{
diagpkt_cmd_code_type cmd_code;
diagpkt_subsys_id_type subsys_id;
diagpkt_subsys_cmd_code_type subsys_cmd_code;
uint8 cmd_id; /* command id (required) */
uint8 cmd_data_len;
byte data[1];
}__attribute__((packed))ftm_ant_pkt_type;
/*===========================================================================
FUNCTION ftm_ant_dispatch
DESCRIPTION
Dispatch routine for the various ANT commands. Copies the data into
a global union data structure before calling the processing routine
DEPENDENCIES
NIL
RETURN VALUE
A Packed structre pointer including the response to the FTM ANT packet
SIDE EFFECTS
None
===========================================================================*/
void * ftm_ant_dispatch(ftm_ant_pkt_type *ftm_ant_pkt, uint16 length );
/*===========================================================================
FUNCTION ftm_ant_qcomm_handle_event
DESCRIPTION
Handler for the various ANT Events received. Sends data as log packets
using diag to upper layers.
DEPENDENCIES
NIL
RETURN VALUE
Status value TRUE if event received successfuly
otherwise returns status value FALSE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_ant_qcomm_handle_event ();
#endif /* CONFIG_FTM_ANT */

2013
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/*==========================================================================
FTM BT Task Header File
Description
Global Data declarations of the ftm bt component.
# Copyright (c) 2010-2011, 2013-2014 by Qualcomm Technologies, Inc.
# All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
09/28/11 rrr Moved peristent NV item related APIs to CPP,
for having BD address being programmed twice if previous
BD address was random generated.
09/03/11 agaja Added support for NV_READ and NV_WRITE Commands to write
onto Persist File system
02/08/11 braghave Changes to read the HCI commands from a binary file for
non-Android case
06/18/10 rakeshk Created a header file to hold the definitons for ftm bt
task
===========================================================================*/
#ifdef CONFIG_FTM_BT
#include "diagpkt.h"
#include <sys/types.h>
#ifdef USE_LIBSOCCFG
#include "btqsocnvm.h"
#include "btqsocnvmutils.h"
#endif
/* -------------------------------------------------------------------------
** Definitions and Declarations
** ------------------------------------------------------------------------- */
#define FTM_BT_CMD_CODE 4 /* BT FTM Command code */
#define FTM_FM_CMD_CODE 28 /* FM FTM Command code */
#define HCI_EVT_HDR_SIZE 3
#define HCI_ACL_HDR_SIZE 5
#define PROTOCOL_BYTE_SIZE 1
#define HC_VS_MAX_CMD_EVENT 260
#define HC_VS_MAX_ACL 1200
#define FTM_BT_HCI_USER_CMD 0
#define BT_FTM_CMD_RSP_LEN 1100
#define FTM_BT_DRV_START_TEST 0xA
/* MACROS for pin connectivty test*/
#define BT_CMD_SLIM_TEST 0xBFAC
#define LOOP_BACK_EVT_OGF 0x02
#define LOOP_BACK_EVT_OCF 0x18
#define LOOP_BACK_EVT_STATUS 0x00
#define LOOP_BACK_EVT_OGF_BIT 0x04
#define LOOP_BACK_EVT_OCF_BIT 0x05
#define LOOP_BACK_EVT_STATUS_BIT 0x06
#define FTM_BT_LOG_HEADER_SIZE (sizeof(ftm_bt_log_pkt_type) - 1)
/* Vendor Specific command codes */
#define BT_QSOC_EDL_CMD_OPCODE (0xFC00)
#define BT_QSOC_NVM_ACCESS_OPCODE (0xFC0B)
#define BT_QSOC_EDL_CMD_CODE (0x00)
#define BT_QSOC_NVM_ACCESS_CODE (0x0B)
#define BT_QSOC_VS_EDL_APPVER_RESP (0x02)
#ifndef HC_VS_MAX_CMD_EVENT
#define HC_VS_MAX_CMD_EVENT 260
#endif /* HC_VS_MAX_CMD_EVENT */
#define BT_QSOC_MAX_NVM_CMD_SIZE 0x64 /* Maximum size config (NVM) cmd */
#define BT_QSOC_MAX_BD_ADDRESS_SIZE 0x06 /**< Length of BT Address */
#ifndef HCI_CMD_HDR_SIZE
#define HCI_CMD_HDR_SIZE 4
#endif /* HCI_CMD_HDR_SIZE */
#ifndef HCI_EVT_HDR_SIZE
#define HCI_EVT_HDR_SIZE 3
#endif /* HCI_EVT_HDR_SIZE */
#define FTM_BT_LOG_PKT_ID 0x01
#define BT_HCI_CMD_PKT 0x01
#define BT_HCI_ACL_PKT 0x02
#define BT_HCI_EVT_PKT 0x04
#define BT_HCI_CMD_CMPLT_EVT 0x0E
#define FM_HCI_EVT_PKT 0x14
#define FM_HCI_CMD_PKT 0x11
extern int boardtype;
/* VS command structure */
typedef struct
{
uint8 vs_cmd_len;
uint8 vs_cmd_data[BT_QSOC_MAX_NVM_CMD_SIZE];
} bt_qsoc_cfg_tbl_struct_type;
/* First Commamd structure - Used to store the First command for later
* processing
*/
struct first_cmd
{
uint8 *cmd_buf;
int cmd_len;
};
/* FTM Global State - Enum defines the various states of the FTM
* module
*/
typedef enum ftm_state
{
FTM_SOC_NOT_INITIALISED,
FTM_SOC_READ_APP_VER,
FTM_SOC_READ_HW_VER,
FTM_SOC_POKE8_TBL_INIT,
FTM_SOC_DOWNLOAD_NVM,
FTM_SOC_DOWNLOAD_NVM_EFS,
FTM_SOC_SLEEP_DISABLE,
FTM_SOC_RESET,
FTM_SOC_INITIALISED
}ftm_state;
/* FTM CMD status */
typedef enum ftm_log_packet_type
{
FTM_USER_CMD_PASS,
FTM_USER_CMD_FAIL,
FTM_HCI_EVENT
}ftm_log_packet_type;
/* FTM Log Packet - Used to send back the event of a HCI Command */
typedef PACKED struct
{
log_hdr_type hdr;
byte data[1]; /* Variable length payload,
look at FTM log id for contents */
} ftm_bt_log_pkt_type;
/* FTM (BT) PKT Header */
typedef PACKED struct
{
word cmd_id; /* command id (required) */
word cmd_data_len; /* request pkt data length, excluding the diag and ftm headers
(optional, set to 0 if not used)*/
word cmd_rsp_pkt_size; /* rsp pkt size, size of response pkt if different then req pkt
(optional, set to 0 if not used)*/
} ftm_bt_cmd_header_type;
/* Bluetooth FTM packet */
typedef PACKED struct
{
diagpkt_subsys_header_type diag_hdr;
ftm_bt_cmd_header_type ftm_hdr;
byte data[1];
} ftm_bt_pkt_type;
/* SoC Cfg open Struct*/
#ifdef USE_LIBSOCCFG
typedef struct
{
bt_qsoc_config_params_struct_type run_time_params;
bt_qsoc_enum_nvm_mode nvm_mode;
bt_qsoc_enum_type soc_type;
}ftm_bt_soc_runtime_cfg_type;
#endif
/*===========================================================================
FUNCTION ftm_bt_err_timedout
DESCRIPTION
This routine triggers the shutdown of the HCI and Power resources in case
a HCI command previously sent times out.
DEPENDENCIES
NIL
RETURN VALUE
RETURN NIL
SIDE EFFECTS
NONE
===========================================================================*/
void ftm_bt_err_timedout();
/*===========================================================================
FUNCTION ftm_bt_dispatch
DESCRIPTION
Processes the BT FTM packet and dispatches the command to FTM HCI driver
DEPENDENCIES
NIL
RETURN VALUE
NIL,The error in the Command Processing is sent to the DIAG App on PC via
log packets
SIDE EFFECTS
None
===========================================================================*/
void ftm_bt_dispatch(void *ftm_bt_pkt ,int cmd_len );
/*===========================================================================
FUNCTION bt_hci_send_ftm_cmd
DESCRIPTION
Helper Routine to process the HCI cmd and invokes the sub routines to intialise
the SoC if needed based on the state of the FTM module
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_send_cmd
(
uint8 * cmd_buf, /* pointer to Cmd */
uint16 cmd_len /* Cmd length */
);
/*===========================================================================
FUNCTION bt_hci_hal_vs_sendcmd
DESCRIPTION
Helper Routine to process the VS HCI cmd and constucts the HCI packet before
calling bt_hci_send_ftm_cmd routine
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_hal_vs_sendcmd
(
uint16 opcode, /* Opcode */
uint8 *pCmdBuffer, /* Pointer to Payload*/
uint8 nSize /* Cmd Size */
);
/*===========================================================================
FUNCTION isLatestTarget
DESCRIPTION
For all the target/solution which has Bluedroid as stack and libbt-vendor as
vendor initialization component considered as latest target
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean isLatestTarget();
char *get_current_time(void);
#endif /* CONFIG_FTM_BT */

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/*==========================================================================
FTM BT Commom Header File
Description
The header file includes helper enums for request_status and bt_power_state.
# Copyright (c) 2010-2011, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
09/28/11 rrr Common utility API abstracted,
06/18/10 rakeshk Created a header file to hold the helper enums for
request_status and bt_power_state
========================================================================*/
#ifdef CONFIG_FTM_BT
#include "event.h"
#include "msg.h"
#include "log.h"
#include "diag_lsm.h"
#include <sys/types.h>
#ifndef __FTM_BT_COMMON_H__
#define __FTM_BT_COMMON_H__
#define TRUE 1
#define FALSE 0
/* request_status - enum to encapuslate the status of a HAL request*/
typedef enum request_status
{
STATUS_SUCCESS,
STATUS_FAIL,
STATUS_NO_RESOURCES,
STATUS_SHORT_WRITE,
STATUS_SHORT_READ
}request_status;
/* request_status - enum to encapuslate the possible statea of BT power*/
typedef enum bt_power_state
{
BT_OFF = 0x30, /* Its the value 0 to be input to rfkill driver */
BT_ON = 0x31 /* ASCII value for '1'*/
}bt_power_state;
typedef enum
{
FTM_BT_DRV_NO_ERR = 0,
FTM_BT_DRV_CONN_TEST_FAILS,
FTM_BT_DRV_QSOC_POWERUP_FAILS,
FTM_BT_DRV_RX_PKT_TYPE_NOT_SUPPORTED,
FTM_BT_DRV_SIO_OPEN_FAILS,
FTM_BT_DRV_NO_SOC_RSP_TOUT,
FTM_BT_DRV_BAD_NVM,
#ifdef BT_NV_SUPPORT
FTM_BT_NV_READ_FAIL,
FTM_BT_NV_WRITE_FAIL,
#endif
FTM_BT_DRV_UNKNOWN_ERR
} ftm_bt_drv_err_state_type;
/*===========================================================================
FUNCTION ftm_bt_hci_qcomm_handle_event
DESCRIPTION
Routine called by the HAL layer reader thread to process the HCI events
The post conditions of each event is covered in a state machine pattern
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_qcomm_handle_event();
/*===========================================================================
FUNCTION ftm_log_send_msg
DESCRIPTION
Processes the buffer sent and sends it to the libdiag for sending the Cmd
response
DEPENDENCIES
NIL
RETURN VALUE
NIL
SIDE EFFECTS
None
===========================================================================*/
void ftm_log_send_msg(const uint8 *pEventBuf,int event_bytes);
#endif //__FTM_BT_COMMON_H__
#endif /* CONFIG_FTM_BT */

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/*==========================================================================
FTM BT HCI PFAL Header File
Description
Warpper API definitions of the ftm bt hci hal component.
# Copyright (c) 2010 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/18/10 rakeshk Created a header file to hold the wrapper HAL
definitions for HCI UART control
===========================================================================*/
#include "ftm_bt_common.h"
#include "ftm_bt_hci_pfal.h"
/*===========================================================================
FUNCTION ftm_bt_hci_hal_set_transport
DESCRIPTION
sets the type of transport based on the msm type
DEPENDENCIES
NIL
RETURN VALUE
returns the type of transport
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_hal_set_transport()
{
return ftm_bt_hci_pfal_set_transport();
}
/*===========================================================================
FUNCTION ftm_bt_hci_hal_deinit_transport
DESCRIPTION
Platform independent wrapper API which intiatea a De-intialise of UART/SMD
resources with PFAL layer and returns the status of the PFAL operation
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_hal_deinit_transport()
{
return ftm_bt_hci_pfal_deinit_transport();
}
/*===========================================================================
FUNCTION ftm_bt_hci_hal_init_transport
DESCRIPTION
Platform independent wrapper API which intiatea a intialise of UART/SMD
resources with PFAL layer and returns the status of the PFAL operation
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_hal_init_transport (int mode)
{
return ftm_bt_hci_pfal_init_transport(mode);
}
/*===========================================================================
FUNCTION ftm_bt_hci_hal_nwrite
DESCRIPTION
Platform independent wrapper API which intiates a write operation
with the PFAL layer and returns the status of the PFAL operation.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_hal_nwrite(uint8 *buf, int size)
{
return ftm_bt_hci_pfal_nwrite(buf,size);
}
/*===========================================================================
FUNCTION ftm_bt_hci_hal_nread
DESCRIPTION
Platform independent wrapper API which intiates a read operation
with the PFAL layer and returns the status of the PFAL operation.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_hal_nread(uint8 *buf, int size)
{
return ftm_bt_hci_pfal_nread(buf,size);
}
/*===========================================================================
FUNCTION ftm_bt_hci_hal_changebaudrate
DESCRIPTION
Platform independent wrapper API which intiatea a UART baud rate change
with the PFAL layer and returns the status of the PFAL request.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
TRUE if SUCCESS, else FAIL
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_hal_changebaudrate (uint32 new_baud)
{
return ftm_bt_hci_pfal_changebaudrate(new_baud);
}

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/*==========================================================================
FTM BT HCI PFAL Header File
Description
PFAL API declarations of the ftm bt hci pfal component.
# Copyright (c) 2010 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/18/10 rakeshk Created a header file to hold the PFAL declarations for
HCI UART programming
===========================================================================*/
#include "ftm_bt_common.h"
#ifndef __FTM_BT_HCI_PFAL_H__
#define __FTM_BT_HCI_PFAL_H__
#define PIN_CON_CMD_OGF 0xFC
#define PIN_CON_CMD_OCF 0x0C
#define PIN_CON_CMD_SUB_OP 0x38
#define PIN_CON_INTERFACE_ID 0x01
#define PIN_CON_EVENT_LEN 0x06
#define EXT_PIN_CON_LEN 0x02
#define PIN_CON_CMD_OCF_BIT 0x01
#define PIN_CON_CMD_OGF_BIT 0x02
#define PIN_CON_CMD_SUBOP_BIT 0x04
#define PIN_CON_CMD_INTER_BIT 0x05
#define PIN_CON_EVT_OGF_BIT 0x05
#define PIN_CON_EVT_OCF_BIT 0x04
#define PIN_CON_EVT_SUB_OP_BIT 0x07
#define PIN_CON_INTERFACE_ID_EVT_BIT 0x08
#define PIN_CON_EVENT_LEN_BIT 0x02
#define PIN_CON_EVT_STATUS_BIT 0x06
#define LOG_TAG "ftmdaemon"
#define PRI_INFO " I"
#define PRI_WARN " W"
#define PRI_ERROR " E"
#define PRI_DEBUG " D"
#define PRI_VERB " V"
#define ALOG(pri, tag, fmt, arg...) fprintf(stderr, tag pri ": " fmt"\n", ##arg)
#define ALOGV(fmt, arg...) ALOG(PRI_VERB, LOG_TAG, fmt, ##arg)
#define ALOGD(fmt, arg...) ALOG(PRI_DEBUG, LOG_TAG, fmt, ##arg)
#define ALOGI(fmt, arg...) ALOG(PRI_INFO, LOG_TAG, fmt, ##arg)
#define ALOGW(fmt, arg...) ALOG(PRI_WARN, LOG_TAG, fmt, ##arg)
#define ALOGE(fmt, arg...) ALOG(PRI_ERROR, LOG_TAG, fmt, ##arg)
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_set_transport
DESCRIPTION
sets the type of transport based on the msm type
DEPENDENCIES
NIL
RETURN VALUE
returns the type of transport
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_pfal_set_transport(void);
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_deinit_transport
DESCRIPTION
Platform specific routine to de-intialise the UART/SMD resource.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_deinit_transport();
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_init_transport
DESCRIPTION
Platform specific routine to intialise the UART/SMD resources.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_init_transport ();
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_nwrite
DESCRIPTION
Platform specific routine to write the data in the argument to the UART/SMD
port intialised.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_nwrite(uint8 *buf, int size);
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_nread
DESCRIPTION
Platform specific routine to read data from the UART/SMD port intialised into
the buffer passed in argument.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_nread(uint8 *buf, int size);
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_changebaudrate
DESCRIPTION
Platform specific routine to intiate a change in baud rate
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
TRUE if SUCCESS, else FALSE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_pfal_changebaudrate (uint32 new_baud);
#endif //__FTM_BT_HCI_PFAL_H__

674
feeds/wifi-ax/ftm/src/ftm_bt_hci_pfal_linux.c Executable file
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/*==========================================================================
FTM Platform specfic HCI UART/SMD File
Description
Platform specific routines to program the UART/SMD descriptors
# Copyright (c) 2010-2011, 2013 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/07/11 bneti Add support smd support for msm8960
06/18/10 rakeshk Created a source file to implement platform specific
routines for UART
07/07/10 rakeshk Removed the conversion of 3.2 Mbps baud rate
01/07/10 rakeshk Added support for verbose logging of Cmd and events
===========================================================================*/
#include <errno.h>
#include <fcntl.h>
#include <sys/ioctl.h>
#include <sys/socket.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <stdlib.h>
#include <sys/select.h>
#include <termios.h>
#include <pthread.h>
#include <stdio.h>
#include <dlfcn.h>
#include "bt_vendor_lib.h"
#include "ftm_bt_hci_pfal.h"
#include "ftm_common.h"
#include <string.h>
#include "log.h"
#include <cutils/properties.h>
#include "hidl_client.h"
#ifdef ANDROID
#define VENDOR_LIB "libbt-vendor.so"
#else
#define VENDOR_LIB "libbt-vendor.so.0"
#endif
uint8_t is_slim_bus_test = 0;
#define UNUSED(x) (void)(x)
/*identify the transport type*/
static char *transport_dev;
typedef enum {
BT_SOC_DEFAULT = 0,
BT_SOC_SMD = BT_SOC_DEFAULT,
BT_SOC_AR3K,
BT_SOC_ROME,
BT_SOC_CHEROKEE,
BT_SOC_NAPIER,
/* Add chipset type here */
BT_SOC_RESERVED
} bt_soc_type;
static void vendor_fwcfg_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_scocfg_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_lpm_vnd_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_audio_state_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void* vendor_alloc(int size) {
UNUSED(size);
return NULL;
}
static void vendor_dealloc(void *p_buf) {
UNUSED(p_buf);
}
static uint8_t vendor_xmit_cb(uint16_t opcode, void *p_buf, tINT_CMD_CBACK p_cback) {
UNUSED(opcode);
UNUSED(p_buf);
UNUSED(p_cback);
return 0;
}
static void vendor_epilog_cb(bt_vendor_op_result_t result) {
UNUSED(result);
}
static void vendor_a2dp_offload_cb(bt_vendor_op_result_t result, bt_vendor_opcode_t op, unsigned char handle) {
UNUSED(result);
UNUSED(op);
UNUSED(handle);
}
bt_vendor_interface_t *vendor_interface=NULL;
static const bt_vendor_callbacks_t vendor_callbacks = {
sizeof(bt_vendor_callbacks_t),
vendor_fwcfg_cb,
vendor_scocfg_cb,
vendor_lpm_vnd_cb,
vendor_audio_state_cb,
vendor_alloc,
vendor_dealloc,
vendor_xmit_cb,
vendor_epilog_cb,
vendor_a2dp_offload_cb
};
/*BT HS UART TTY DEVICE */
#define BT_HS_UART_DEVICE "/dev/ttyHS0"
/*BT RIVA-SMD CHANNELS */
#define APPS_RIVA_BT_ACL_CH "/dev/smd2"
#define APPS_RIVA_BT_CMD_CH "/dev/smd3"
/* Variables to identify the platform */
char transport_type[PROPERTY_VALUE_MAX];
static boolean is_transportSMD;
extern int soc_type;
/* Reader thread handle */
pthread_t hci_cmd_thread_hdl;
/* Pipe file descriptors for cancelling read operation */
int pipefd[2];
/* Transport file descriptor */
int fd_transport;
/* Starting baud rate to init the tty device */
int starting_baud = 115200;
/* Verbose output monitoring variable */
int verbose = 1;
/* Defintion to convert integer baud rate to the
* Data type understood by tty device
*/
#define BAUDCLAUS(i) case (i): return ( B##i )
/*===========================================================================
FUNCTION convert_baud
DESCRIPTION
Routine to convert the integer baud rate to type speed_t
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
Converted Baud rate, else default 0
SIDE EFFECTS
None
===========================================================================*/
static speed_t convert_baud(uint32 baud_rate)
{
switch (baud_rate)
{
BAUDCLAUS(50);
BAUDCLAUS(75);
BAUDCLAUS(110);
BAUDCLAUS(134);
BAUDCLAUS(150);
BAUDCLAUS(200);
BAUDCLAUS(300);
BAUDCLAUS(600);
BAUDCLAUS(1200);
BAUDCLAUS(1800);
BAUDCLAUS(2400);
BAUDCLAUS(4800);
BAUDCLAUS(9600);
BAUDCLAUS(19200);
BAUDCLAUS(38400);
BAUDCLAUS(57600);
BAUDCLAUS(115200);
BAUDCLAUS(230400);
BAUDCLAUS(460800);
BAUDCLAUS(500000);
BAUDCLAUS(576000);
BAUDCLAUS(921600);
BAUDCLAUS(1000000);
BAUDCLAUS(1152000);
BAUDCLAUS(1500000);
BAUDCLAUS(2000000);
BAUDCLAUS(2500000);
BAUDCLAUS(3000000);
BAUDCLAUS(3500000);
BAUDCLAUS(4000000);
default: return 0;
}
}
/*===========================================================================
FUNCTION ftm_readerthread
DESCRIPTION
Thread Routine to perfom asynchrounous handling of events coming on Uart/Smd
descriptor. It invokes a callback to the FTM BT layer to intiate a request
to read event bytes.
DEPENDENCIES
The LifeTime of ReaderThraad is dependent on the status returned by the
call to ftm_bt_hci_qcomm_handle_event
RETURN VALUE
RETURN NIL
SIDE EFFECTS
None
===========================================================================*/
void *ftm_readerthread(void *ptr)
{
UNUSED(ptr);
boolean status = FALSE;
int retval;
fd_set readfds;
int buf;
do
{
FD_ZERO(&readfds);
FD_SET(fd_transport, &readfds);
FD_SET(pipefd[0],&readfds);
retval = select((pipefd[0] > fd_transport? pipefd[0] : fd_transport) + 1,
&readfds, NULL, NULL, NULL);
if(retval == -1)
{
printf("select failed\n");
break;
}
if(FD_ISSET(pipefd[0],&readfds))
{
#ifdef FTM_DEBUG
printf("Pipe descriptor set\n");
#endif
read(pipefd[0],&buf,1);
if(buf == 1)
break;
}
if(FD_ISSET(fd_transport,&readfds))
{
#ifdef FTM_DEBUG
printf("Read descriptor set\n");
#endif
status = ftm_bt_hci_qcomm_handle_event();
if(TRUE != status)
break;
}
}
while(1);
#ifdef FTM_DEBUG
printf("\nReader thread exited\n");
#endif
return 0;
}
/*===========================================================================
FUNCTION ftm_bt_pfal_set_transport
DESCRIPTION
sets the type of transport based on the msm type
DEPENDENCIES
NIL
RETURN VALUE
returns the type of transport
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_pfal_set_transport(void)
{
if (soc_type == BT_SOC_ROME || soc_type == BT_SOC_CHEROKEE || soc_type == BT_SOC_NAPIER) {
strlcpy(transport_type, "uart", sizeof(transport_type));
printf("[%s]: Transport type is: %s\n", __FUNCTION__, transport_type);
is_transportSMD = 0;
transport_dev = BT_HS_UART_DEVICE;
} else {
strlcpy(transport_type, "smd", sizeof(transport_type));
printf("[%s]: Transport type is: %s\n", __FUNCTION__, transport_type);
is_transportSMD = 1;
transport_dev = APPS_RIVA_BT_CMD_CH;
}
return is_transportSMD;
}
int init_transport_bdroid(boolean on) {
void *so_handle;
unsigned char bdaddr[] = {0x01, 0x02, 0x03, 0x04, 0x05, 0x06};
request_status st;
int fd[CH_MAX], powerstate, ret;
if (on) {
so_handle = dlopen(VENDOR_LIB, RTLD_NOW);
if (!so_handle)
{
ALOGE("Failed to load vendor component %s", dlerror());
return -1;
}
vendor_interface = (bt_vendor_interface_t *) dlsym(so_handle, "BLUETOOTH_VENDOR_LIB_INTERFACE");
if (!vendor_interface)
{
ALOGE("Failed to accesst bt vendor interface");
return -1;
}
vendor_interface->init(&vendor_callbacks, bdaddr);
ALOGI("Turn On BT power");
powerstate = BT_VND_PWR_ON;
ret = vendor_interface->op(BT_VND_OP_POWER_CTRL, &powerstate);
if (ret < 0)
{
ALOGE("Failed to turn on power from bt vendor interface");
return -1;
}
ret = vendor_interface->op(BT_VND_OP_USERIAL_OPEN, fd);
ALOGE("ret value: %d", ret);
/* This is just a hack; needs to be removed */
ret = 1;
ALOGE("setting ret value to 1 manually");
if (ret != 1)
{
ALOGE("Failed to get fd from bt vendor interface");
return -1;
} else {
ALOGE("FD: %x", fd[0]);
return fd[0];
}
} else {
if (vendor_interface) {
ALOGE("Close and cleanup the interfaces");
int ret = vendor_interface->op(BT_VND_OP_USERIAL_CLOSE, NULL);
ALOGE("ret value: %d", ret);
vendor_interface->cleanup();
return 0;
} else {
ALOGE("Not able to find vendor interface handle");
return -1;
}
}
}
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_deinit_transport
DESCRIPTION
Platform specific routine to de-intialise the UART/SMD resource.
PLATFORM SPECIFIC DESCRIPTION
Closes the TTY/SMD file descriptor and sets the descriptor value to -1
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
The Close of the descriptor will trigger a failure in the Reader Thread
and hence cause a Deinit of the ReaderThread
===========================================================================*/
request_status ftm_bt_hci_pfal_deinit_transport()
{
int buf = 1;
write(pipefd[1],&buf,1);
if(!isLatestTarget())
{
close(fd_transport);
fd_transport = -1;
}
else
{
//Use libbt-vendor for chip de-initialization
init_transport_bdroid(FALSE);
}
return STATUS_SUCCESS;
}
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_init_uart
DESCRIPTION
Platform specific routine to intialise the UART/SMD resources.
PLATFORM SPECIFIC DESCRIPTION
Opens the TTY/SMD device file descriptor, congiures the TTY/SMD device for CTS/RTS
flow control,sets 115200 for TTY as the default baudrate and starts the Reader
Thread
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_init_transport(int mode)
{
struct termios term;
if(isLatestTarget())
{
printf("%s: ",__func__ );
//Use hidl_client_initialize for chip initialization
if (hidl_client_initialize(mode, &fd_transport) == false) {
printf("%s: HIDL client initialization failed \n", __func__);
return STATUS_NO_RESOURCES;
}
printf("%s: , fd:%d: ", __func__, fd_transport);
}
else
{
fd_transport = open(transport_dev, (O_RDWR | O_NOCTTY));
if (-1 == fd_transport)
{
return STATUS_NO_RESOURCES;
}
if (tcflush(fd_transport, TCIOFLUSH) < 0)
{
close(fd_transport);
return STATUS_FAIL;
}
if (tcgetattr(fd_transport, &term) < 0)
{
close(fd_transport);
return STATUS_FAIL;
}
cfmakeraw(&term);
/* Set RTS/CTS HW Flow Control*/
term.c_cflag |= (CRTSCTS | CLOCAL);
if (tcsetattr(fd_transport, TCSANOW, &term) < 0)
{
close(fd_transport);
return STATUS_FAIL;
}
/* Configure the /dev/ttyHS0 device to operate at 115200.
no need for msm8960 as it is using smd as transport
*/
if (!is_transportSMD)
if (ftm_bt_hci_pfal_changebaudrate(starting_baud) == FALSE)
{
close(fd_transport);
return STATUS_FAIL;
}
}
if (pipe(pipefd) == -1)
{
printf("pipe create error");
return STATUS_FAIL;
}
if(mode != MODE_FM) {
/* Creating read thread which listens for various masks & pkt requests */
pthread_create( &hci_cmd_thread_hdl, NULL, ftm_readerthread, NULL);
}
return STATUS_SUCCESS;
}
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_nwrite
DESCRIPTION
Platform specific routine to write the data in the argument to the UART/SMD
port intialised.
PLATFORM SPECIFIC DESCRIPTION
Write the buffer to the tty device and ensure it is completely written
In case of short write report error to the BT FTM layer.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_nwrite(uint8 *buf, int size)
{
int tx_bytes = 0, nwrite;
int i = 0, buf_size = size;
uint8 loop_back_cmd[6] = {0x1, 0x02, 0x18, 0x01, 0x01};
/*hci packet is not required to carry the Packet indicator (for UART interfaces) for msm8960
as it is using share memory interface */
int hci_uart_pkt_ind = 0;
if(fd_transport < 0)
return STATUS_NO_RESOURCES;
if ( buf[PIN_CON_CMD_OGF_BIT] == PIN_CON_CMD_OGF &&
buf[PIN_CON_CMD_OCF_BIT] == PIN_CON_CMD_OCF &&
(size > PIN_CON_CMD_SUBOP_BIT) &&
buf[PIN_CON_CMD_SUBOP_BIT] == PIN_CON_CMD_SUB_OP &&
(size > PIN_CON_CMD_INTER_BIT) &&
buf[PIN_CON_CMD_INTER_BIT] == PIN_CON_INTERFACE_ID)
{
is_slim_bus_test = 1;
printf("\nPinConnectivityTest: Sending loopback command to SOC before initiasing slimbus\n");
strlcpy(buf, loop_back_cmd, size);
}
do
{
nwrite = write(fd_transport, (buf + hci_uart_pkt_ind + tx_bytes), (size - hci_uart_pkt_ind - tx_bytes));
if (nwrite < 0)
{
printf("Error while writing ->\n");
return STATUS_SHORT_WRITE;
}
if (nwrite == 0)
{
printf("ftm_bt_hci_pfal_nwrite: zero-length write\n");
return STATUS_SHORT_WRITE;
}
tx_bytes += nwrite;
size -= nwrite;
} while (tx_bytes < size - hci_uart_pkt_ind);
if (verbose == 1)
{
printf("[%s] %s: CMD:", get_current_time(), __FUNCTION__);
for (i = 0; i < buf_size; i++)
{
printf(" %02X", buf[i]);
}
printf("\n");
}
return STATUS_SUCCESS;
}
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_nread
DESCRIPTION
Platform specific routine to read data from the UART/SMD port intialised into
the buffer passed in argument.
PLATFORM SPECIFIC DESCRIPTION
Read from the tty device into the buffer and ensure the read request is
completed, in case of short read report error to the BT FTM layer.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_hci_pfal_nread(uint8 *buf, int size)
{
int rx_bytes = 0, nread;
if(fd_transport < 0)
return STATUS_NO_RESOURCES;
do
{
nread = read(fd_transport, (buf + rx_bytes), (size - rx_bytes));
if (nread < 0)
{
printf("Error while reading ->\n");
return STATUS_SHORT_READ;
}
rx_bytes += nread;
} while (rx_bytes < size);
return STATUS_SUCCESS;
}
/*===========================================================================
FUNCTION ftm_bt_hci_pfal_changebaudrate
DESCRIPTION
Platform specific routine to intiate a change in baud rate
PLATFORM SPECIFIC DESCRIPTION
Convert the Baud rate passed to the speed_t type and program the
Baud rate change after ensuring all transmit is drained at the
current baud rate
DEPENDENCIES
It is expected that the Upper layer will intiate a Flow Off to the
BT SoC, to signal the stop of receive if the baud rate change is
initiated while SoC init is in progress
RETURN VALUE
RETURN VALUE
TRUE if SUCCESS, else FALSE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_hci_pfal_changebaudrate (uint32 new_baud)
{
struct termios term;
boolean status = TRUE;
speed_t baud_code;
speed_t actual_baud_code;
if (tcgetattr(fd_transport, &term) < 0)
{
printf("Can't get port settings\n");
status = FALSE;
}
else
{
baud_code = convert_baud(new_baud);
(void) cfsetospeed(&term, baud_code);
if (tcsetattr(fd_transport, TCSADRAIN, &term) < 0) /* don't change speed until last write done */
{
printf("bt_hci_qcomm_pfal_changebaudrate: tcsetattr:\n");
status = FALSE;
}
/* make sure that we reportedly got the speed we tried to set */
if (1 < verbose)
{
if (tcgetattr(fd_transport, &term) < 0)
{
printf("bt_hci_qcomm_pfal_changebaudrate: tcgetattr:\n");
status = FALSE;
}
if (baud_code != (actual_baud_code = cfgetospeed(&term)))
{
printf("bt_hci_qcomm_pfal_changebaudrate: new baud %u FAILED, got 0x%x\n", new_baud, actual_baud_code);
}
else
{
printf("bt_hci_qcomm_pfal_changebaudrate: new baud %u SUCCESS, got 0x%x\n", new_baud, actual_baud_code);
}
}
}
return status;
}

278
feeds/wifi-ax/ftm/src/ftm_bt_persist.cpp Executable file
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@@ -0,0 +1,278 @@
/*==========================================================================
BT persist NV items access source file
Description
Read/Write APIs for retreiving NV items from persist memory.
# Copyright (c) 2011-12 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
05/25/12 jav Added FTM log that will display bt address while testing.
09/27/11 rrr Moved persist related API for c/c++ compatibility, needed
for random BD address to be persistent across target
reboots.
==========================================================================*/
#include "ftm_bt_persist.h"
#include <semaphore.h>
#ifdef BT_NV_SUPPORT
#include "bt_nv.h"
/* Semaphore shared by the Event handler and main thread */
extern sem_t semaphore_cmd_complete;
/*Flag to manage the verbose output */
extern int verbose;
/*===========================================================================
FUNCTION ftm_bt_send_nv_read_cmd
DESCRIPTION
Helper Routine to process the nv read command
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_send_nv_read_cmd
(
uint8 * cmd_buf, /* pointer to Cmd */
uint16 cmd_len /* Cmd length */
)
{
nv_persist_item_type my_nv_item;
nv_persist_stat_enum_type cmd_result;
boolean result = TRUE;
if(cmd_len >1)
{
switch(*(cmd_buf+1))
{
case NV_BD_ADDR_I:
cmd_result = (nv_persist_stat_enum_type)bt_nv_cmd(NV_READ_F, NV_BD_ADDR_I, &my_nv_item);
if (NV_SUCCESS != cmd_result)
{
if (verbose > 0)
{
fprintf (stderr, "nv_cmd_remote failed to get BD_ADDR from NV, code %d\n", cmd_result);
}
/* Send fail response */
result = FALSE;
}
else
{
/* copy bytes */
event_buf_nv_read_response[0] = FTM_BT_CMD_NV_READ;
event_buf_nv_read_response[1] = NV_BD_ADDR_I;
event_buf_nv_read_response[7] = my_nv_item.bd_addr[5];
event_buf_nv_read_response[6] = my_nv_item.bd_addr[4];
event_buf_nv_read_response[5] = my_nv_item.bd_addr[3];
event_buf_nv_read_response[4] = my_nv_item.bd_addr[2];
event_buf_nv_read_response[3] = my_nv_item.bd_addr[1];
event_buf_nv_read_response[2] = my_nv_item.bd_addr[0];
/* send BD_ADDR in the response */
fprintf (stderr, "nv_cmd_remote got NV_BD_ADDR_I from NV: %x:%x:%x:%x:%x:%x\n",
(unsigned int) my_nv_item.bd_addr[5], (unsigned int) my_nv_item.bd_addr[4],
(unsigned int) my_nv_item.bd_addr[3], (unsigned int) my_nv_item.bd_addr[2],
(unsigned int) my_nv_item.bd_addr[1], (unsigned int) my_nv_item.bd_addr[0]);
ftm_log_send_msg((const uint8 *)event_buf_nv_read_response,nv_read_response_size);
result = TRUE;
}
break;
case NV_BT_SOC_REFCLOCK_TYPE_I:
cmd_result = (nv_persist_stat_enum_type)bt_nv_cmd(NV_READ_F, NV_BT_SOC_REFCLOCK_TYPE_I, &my_nv_item);
if (NV_SUCCESS != cmd_result)
{
if (verbose > 0)
{
fprintf (stderr, "nv_cmd_remote failed to get BD_ADDR from NV, code %d\n", cmd_result);
}
/* Send fail response */
result = FALSE;
}
else
{
event_buf_nv_read_response[0] = FTM_BT_CMD_NV_READ;
event_buf_nv_read_response[1] = NV_BT_SOC_REFCLOCK_TYPE_I;
event_buf_nv_read_response[2] = (uint8) my_nv_item.bt_soc_refclock_type ;
event_buf_nv_read_response[7] = 0x0;
event_buf_nv_read_response[6] = 0x0;
event_buf_nv_read_response[5] = 0x0;
event_buf_nv_read_response[4] = 0x0;
event_buf_nv_read_response[3] = 0x0;
fprintf (stderr, "nv_cmd_remote got NV_BT_SOC_REFCLOCK_TYPE_I from NV: 0x%x\n",
(unsigned int) my_nv_item.bt_soc_refclock_type);
ftm_log_send_msg((const uint8 *)event_buf_nv_read_response,nv_read_response_size);
result = TRUE;
}
break;
case NV_BT_SOC_CLK_SHARING_TYPE_I:
cmd_result = (nv_persist_stat_enum_type)bt_nv_cmd(NV_READ_F, NV_BT_SOC_CLK_SHARING_TYPE_I, &my_nv_item);
if (NV_SUCCESS != cmd_result)
{
if (verbose > 0)
{
fprintf (stderr, "nv_cmd_remote failed to get CLK_SHARING from NV, code %d\n", cmd_result);
}
/* Send fail response */
result = FALSE;
}
else
{
event_buf_nv_read_response[0] = FTM_BT_CMD_NV_READ;
event_buf_nv_read_response[1] = NV_BT_SOC_CLK_SHARING_TYPE_I;
event_buf_nv_read_response[2] = (uint8) my_nv_item.bt_soc_clk_sharing_type ;
event_buf_nv_read_response[7] = 0x0;
event_buf_nv_read_response[6] = 0x0;
event_buf_nv_read_response[5] = 0x0;
event_buf_nv_read_response[4] = 0x0;
event_buf_nv_read_response[3] = 0x0;
fprintf (stderr, "nv_cmd_remote got NV_BT_SOC_CLK_SHARING_TYPE_I from NV: 0x%x\n",
(unsigned int) my_nv_item.bt_soc_refclock_type);
ftm_log_send_msg((const uint8 *)event_buf_nv_read_response,nv_read_response_size);
result = TRUE;
}
break;
}
if(result == FALSE)
ftm_log_send_msg(event_buf_nv_read_response_fail,nv_read_response_size_fail);
sem_post(&semaphore_cmd_complete);
return result;
}
return TRUE;
}
/*===========================================================================
FUNCTION ftm_bt_send_nv_write_cmd
DESCRIPTION
Helper Routine to process the nv write command
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_send_nv_write_cmd
(
uint8 * cmd_buf, /* pointer to Cmd */
uint16 cmd_len /* Cmd length */
)
{
nv_persist_item_type my_nv_item;
nv_persist_stat_enum_type cmd_result;
boolean result = TRUE;
if(cmd_len >1)
{
switch(*(cmd_buf+1))
{
case NV_BD_ADDR_I:
memcpy(&my_nv_item.bd_addr, (cmd_buf+2), NV_BD_ADDR_SIZE);
cmd_result = (nv_persist_stat_enum_type)bt_nv_cmd(NV_WRITE_F, NV_BD_ADDR_I, &my_nv_item);
if (NV_SUCCESS != cmd_result)
{
if (verbose > 0)
{
fprintf (stderr, "nv_cmd_remote failed to get BD_ADDR from NV, code %d\n", cmd_result);
}
/* Send fail response */
result = FALSE;
}
else
{
result = TRUE;
}
break;
case NV_BT_SOC_REFCLOCK_TYPE_I:
switch (*(cmd_buf+2))
{
case NV_PS_BT_SOC_REFCLOCK_32MHZ:
case NV_PS_BT_SOC_REFCLOCK_19P2MHZ:
my_nv_item.bt_soc_refclock_type = (nv_ps_bt_soc_refclock_enum_type)(*(cmd_buf+2)) ;
break;
default:
fprintf (stderr, "Invalid Ref Clock option\n");
result = FALSE;
}
if (result != FALSE)
{
cmd_result= (nv_persist_stat_enum_type)bt_nv_cmd(NV_WRITE_F, NV_BT_SOC_REFCLOCK_TYPE_I, &my_nv_item);
if (NV_SUCCESS != cmd_result)
{
fprintf (stderr, "nv_cmd_remote failed to write SOC_REFCLOCK_TYPE to NV, code %d\n", cmd_result);
result = FALSE;
}
else
{
result = TRUE;
}
break;
}
case NV_BT_SOC_CLK_SHARING_TYPE_I:
switch (*(cmd_buf+2))
{
case NV_PS_BT_SOC_CLOCK_SHARING_ENABLED:
case NV_PS_BT_SOC_CLOCK_SHARING_DISABLED:
my_nv_item.bt_soc_clk_sharing_type = (nv_ps_bt_soc_clock_sharing_enum_type)(*(cmd_buf+2)) ;
break;
default:
fprintf (stderr, "Invalid Clock Sharing option\n");
result = FALSE;
}
if (result != FALSE)
{
cmd_result= (nv_persist_stat_enum_type)bt_nv_cmd(NV_WRITE_F, NV_BT_SOC_CLK_SHARING_TYPE_I, &my_nv_item);
if (NV_SUCCESS != cmd_result)
{
fprintf (stderr, "nv_cmd_remote failed to write SOC_CLK_SHARING_TYPE to NV, code %d\n", cmd_result);
result = FALSE;
}
else
{
result = TRUE;
}
break;
}
}
if(result == FALSE)
{
ftm_log_send_msg(event_buf_bt_nv_write_fail,nv_write_response_size);
sem_post(&semaphore_cmd_complete);
}
else
{
ftm_log_send_msg((const uint8 *)event_buf_bt_nv_write_pass,nv_write_response_size);
sem_post(&semaphore_cmd_complete);
}
return result;
}
return TRUE;
}
#endif /* End of BT_NV_SUPPORT */

113
feeds/wifi-ax/ftm/src/ftm_bt_persist.h Executable file
View File

@@ -0,0 +1,113 @@
#ifndef _FTM_BT_PERSIST_H_
#define _FTM_BT_PERSIST_H_
/*==========================================================================
BT persist NV items access source file
Description
Read/Write APIs for retreiving NV items from persist memory.
# Copyright (c) 2011 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
09/27/11 rrr Moved persist related API for c/c++ compatibility, needed
for random BD address to be persistent across target
reboots.
==========================================================================*/
#ifdef __cplusplus
extern "C"
{
#endif
#include <errno.h>
#include <stdlib.h>
#include <stdio.h>
#include "ftm_bt_common.h"
#include <string.h>
#ifdef BT_NV_SUPPORT
#define FTM_BT_CMD_NV_READ 0xB
#define FTM_BT_CMD_NV_WRITE 0xC
const uint8 nv_read_response_size = 8;
const uint8 nv_read_response_size_fail = 2;
const uint8 nv_write_response_size = 2;
/* NV Write Responses */
const uint8 event_buf_bt_nv_write_pass[2] = { FTM_BT_CMD_NV_WRITE, FTM_BT_DRV_NO_ERR};
const uint8 event_buf_bt_nv_write_fail[2] = { FTM_BT_CMD_NV_WRITE, FTM_BT_NV_WRITE_FAIL};
/* NV Read Responses */
const uint8 event_buf_nv_read_response_fail[8] =
{
FTM_BT_CMD_NV_READ, FTM_BT_NV_READ_FAIL, 0x0, 0x0,0x0,0x0,0x0,0x0
};
uint8 event_buf_nv_read_response[8];
#endif /* BT_NV_SUPPORT */
/*===========================================================================
FUNCTION ftm_bt_send_nv_read_cmd
DESCRIPTION
Helper Routine to process the nv read command
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_send_nv_read_cmd
(
uint8 * cmd_buf, /* pointer to Cmd */
uint16 cmd_len /* Cmd length */
);
/*===========================================================================
FUNCTION ftm_bt_send_nv_write_cmd
DESCRIPTION
Helper Routine to process the nv write command
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean ftm_bt_send_nv_write_cmd
(
uint8 * cmd_buf, /* pointer to Cmd */
uint16 cmd_len /* Cmd length */
);
#ifdef __cplusplus
}
#endif
#endif /* _FTM_BT_PERSIST_H_ */

76
feeds/wifi-ax/ftm/src/ftm_bt_power_hal.h Executable file
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/*==========================================================================
FTM BT POWER HAL Header File
Description
Wrapper API definitions of the ftm bt power hal component.
# Copyright (c) 2010 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/18/10 rakeshk Created a header file to include the wrapper API
definitions for BT power control
07/07/10 rakeshk Modified the function name of BT power set HAL routine
===========================================================================*/
#include "ftm_bt_common.h"
#include "ftm_bt_power_pfal.h"
#ifndef __FTM_BT_POWER_HAL_H__
#define __FTM_BT_POWER_HAL_H__
/*===========================================================================
FUNCTION ftm_bt_power_hal_set
DESCRIPTION
Platform independent wrapper API which sets a BT power from PFAL
layer and returns the status of the PFAL operation.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_power_hal_set(bt_power_state state)
{
return ftm_bt_power_pfal_set(state);
}
/*===========================================================================
FtUNCTION ftm_bt_power_hal_check
DESCRIPTION
Platform independent wrapper API which gets the BT power from PFAL
layer and returns the current state of the BT HW.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
Current BT power state
SIDE EFFECTS
None
===========================================================================*/
bt_power_state ftm_bt_power_hal_check()
{
return ftm_bt_power_pfal_check();
}
#endif //__FTM_BT_POWER_HAL_H__

71
feeds/wifi-ax/ftm/src/ftm_bt_power_pfal.h Executable file
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/*==========================================================================
FTM BT POWER PFAL Header File
Description
PFAL API declarations of the ftm bt power pfal component.
# Copyright (c) 2010 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/18/10 rakeshk Created a header file to hold the PFAL declarations for
BT power programming
07/07/10 rakeshk Modified the function name of BT power set PFAL routine
===========================================================================*/
#include "ftm_bt_common.h"
#ifndef __FTM_BT_POWER_PFAL_H__
#define __FTM_BT_POWER_PFAL_H__
/*===========================================================================
FUNCTION ftm_bt_power_pfal_set
DESCRIPTION
Platform dependent interface API which sets the BT power
and returns the status of the toggle operation.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_power_pfal_set(bt_power_state state);
/*===========================================================================
FUNCTION ftm_bt_power_pfal_check
DESCRIPTION
Platform dependent interface API which intiates a BT power read/check
and returns the current state of the BT HW.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
Current BT power state
SIDE EFFECTS
None
===========================================================================*/
bt_power_state ftm_bt_power_pfal_check();
#endif

197
feeds/wifi-ax/ftm/src/ftm_bt_power_pfal_linux.c Executable file
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/*==========================================================================
FTM Platform specfic BT power File
Description
Platform specific routines to toggle/read the BT power state
# Copyright (c) 2010-2011 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/18/10 rakeshk Created a source file to implement platform specific
routines for BT power.
07/07/10 rakeshk Added routine to find the sysfs entry for bluetooth in
runtime
07/07/10 rakeshk Added call to init the rfkill state path in case of first
read
===========================================================================*/
#include <errno.h>
#include <fcntl.h>
#include <sys/ioctl.h>
#include <sys/socket.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <stdlib.h>
#include <stdio.h>
#include "ftm_bt_power_pfal.h"
#include <string.h>
/* Bluetooth Rfkill Entry for Android */
static char *rfkill_state_path = NULL;
/*===========================================================================
FUNCTION init_rfkill_path
DESCRIPTION
Opens the sysfs entry for different types of rfkill and finds the one
which matches Bluetooth by iterating through the rfkill entries
and checking for bluetooth
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
TRUE if SUCCESS, else FALSE
SIDE EFFECTS
None
===========================================================================*/
boolean init_rfkill_path()
{
int fd;
int readsize;
int rfkillid;
char rfkill_path[64];
char buf[16];
for (rfkillid = 0; ; rfkillid++)
{
/* Open the different rfkill type entries and check if type macthes bluetooth */
snprintf(rfkill_path, sizeof(rfkill_path), "/sys/class/rfkill/rfkill%d/type", rfkillid);
fd = open(rfkill_path, O_RDONLY);
if (fd < 0)
{
printf("open(%s) failed: \n", rfkill_path);
return FALSE;
}
readsize = read(fd, &buf, sizeof(buf));
close(fd);
if (memcmp(buf, "bluetooth", 9) == 0)
{
break;
}
}
asprintf(&rfkill_state_path, "/sys/class/rfkill/rfkill%d/state", rfkillid);
return TRUE;
}
/*===========================================================================
FUNCTION ftm_bt_power_pfal_set
DESCRIPTION
Platform dependent interface API which sets the BT power state
and returns the status of the toggle operation.
PLATFORM SPECIFIC DESCRIPTION
Opens the rfkill entry for Bleutooth and initiates a write of the value
passed as argument.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
STATUS_SUCCESS if SUCCESS, else other reasons
SIDE EFFECTS
None
===========================================================================*/
request_status ftm_bt_power_pfal_set(bt_power_state state)
{
int sz;
int fd = -1;
request_status ret = STATUS_FAIL;
const char buffer = state;
if(rfkill_state_path == NULL)
{
if(init_rfkill_path() != TRUE)
goto out;
}
fd = open(rfkill_state_path, O_WRONLY);
if (fd < 0)
{
ret = STATUS_NO_RESOURCES;
goto out;
}
sz = write(fd, &buffer, 1);
if (sz < 0)
{
goto out;
}
ret = STATUS_SUCCESS;
out:
if (fd >= 0)
close(fd);
return ret;
}
/*===========================================================================
FUNCTION ftm_bt_power_pfal_check
DESCRIPTION
Platform dependent interface API which intiates a BT power read/check
and returns the current state of the BT HW.
PLATFORM SPECIFIC DESCRIPTION
Opens the rfkill entry for Bleutooth and initiates a read on the rfkill
descriptor.
DEPENDENCIES
NIL
RETURN VALUE
RETURN VALUE
Current BT power state
SIDE EFFECTS
None
===========================================================================*/
bt_power_state ftm_bt_power_pfal_check()
{
int sz;
bt_power_state state= BT_OFF;
int fd = -1;
char buffer = '0';
if(rfkill_state_path == NULL)
{
if(init_rfkill_path() != TRUE)
goto out;
}
fd = open(rfkill_state_path, O_RDONLY);
if (fd < 0)
{
goto out;
}
sz = read(fd, &buffer, 1);
if (sz < 0)
{
goto out;
}
out:
if (fd >= 0)
close(fd);
state = (bt_power_state)buffer;
return state;
}

141
feeds/wifi-ax/ftm/src/ftm_common.h Executable file
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/*==========================================================================
FTM BT HCI PFAL Header File
Description
Queue insert/delete routines and data structures
# Copyright (c) 2010-2011, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
06/18/10 rakeshk Created
11/09/10 rakeshk Added two APIs to perform read/write of BT Top level
I2C registers
===========================================================================*/
#if defined(CONFIG_FTM_BT) || defined(CONFIG_FTM_FM)
#include <ftm_bt_common.h>
#include "ftm_bt.h"
#include <semaphore.h>
#include <pthread.h>
/* Semaphore shared by the Event handler and main thread */
extern sem_t semaphore_cmd_complete;
/* Structure used by the FTM BT/FM component to
* queue the FTM packet contents
*/
pthread_mutex_t fm_event_lock;
pthread_cond_t fm_event_cond;
extern int fm_passthrough;
typedef struct cmdQ
{
int command_id;/*Command id */
void *data; /* Command data */
boolean bt_command; /* whether BT or FM command */
int cmd_len; /* Command length */
struct cmdQ *next; /* pointer to next CmdQ item */
}cmdQ;
/* Callback declaration for BT FTM packet processing */
void *bt_ftm_diag_dispatch(void *req_pkt, uint16 pkt_len);
/*===========================================================================
FUNCTION qinsert_cmd
DESCRIPTION
Command Queue insert routine. Add the FTM BT packet to the Queue
DEPENDENCIES
NIL
RETURN VALUE
RETURNS FALSE without adding queue entry in failure
to allocate a new Queue item
else returns TRUE
SIDE EFFECTS
increments the number of commands queued
===========================================================================*/
boolean qinsert_cmd(ftm_bt_pkt_type *ftm_bt_pkt);
/*===========================================================================
FUNCTION dequeue_send
DESCRIPTION
Command Queue delete and calls HCI send routine. Dequeues the HCI data from
the queue and sends it to HCI HAL layer.
DEPENDENCIES
NIL
RETURN VALUE
RETURN NIL
SIDE EFFECTS
decrements the number of command queued
===========================================================================*/
void dequeue_send();
/*===========================================================================
FUNCTION i2c_write
DESCRIPTION
Helper function to construct the I@C request to be sent to the FM I2C
driver
DEPENDENCIES
NIL
RETURN VALUE
-1 in failure,positive or zero in success
SIDE EFFECTS
None
===========================================================================*/
int i2c_write
(
int fd,
unsigned char offset,
const unsigned char* buf,
unsigned char len,
unsigned int slave_addr
);
/*===========================================================================
FUNCTION i2c_read
DESCRIPTION
Helper function to construct the I2C request to read data from the FM I2C
driver
DEPENDENCIES
NIL
RETURN VALUE
-1 in failure,positive or zero in success
SIDE EFFECTS
None
===========================================================================*/
int i2c_read
(
int fd,
unsigned char offset,
const unsigned char* buf,
unsigned char len,
unsigned int slave_addr
);
#endif

34
feeds/wifi-ax/ftm/src/ftm_dbg.h Executable file
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/*==========================================================================
FTM WLAN Source File
# Copyright (c) 2013-2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
#ifndef _FTM_DBG_H_
#define _FTM_DBG_H_
#define FTM_DBG_ERROR 0x00000001
#define FTM_DBG_INFO 0x00000002
#define FTM_DBG_TRACE 0x00000004
#define FTM_DBG_DEFAULT (FTM_DBG_ERROR)
extern unsigned int g_dbg_level;
#ifdef DEBUG
void current_time();
#define DPRINTF(_level, _x...)\
do {\
if (g_dbg_level & (_level))\
{\
fprintf(stderr, _x);\
}\
} while (0);
#else
#define DPRINTF(_level, x...) do { } while (0);
#endif
#endif /* _FTM_DBG_H_ */

3804
feeds/wifi-ax/ftm/src/ftm_fm.c Executable file
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993
feeds/wifi-ax/ftm/src/ftm_fm_common.h Executable file
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/*==========================================================================
FTM FM Common Header File
Description
Global Data declarations of the ftm fm component.
# Copyright (c) 2010-2012, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
08/03/2011 uppalas Adding support for new ftm commands
06/18/10 rakeshk Created a header file to hold the definitons for ftm fm
task
07/06/10 rakeshk Clean roomed the data structures and defined data
structures to be passed to the PFAL layers
01/11/11 rakeshk Added support for new FTM APIS
02/09/11 rakeshk Added support for BLER FTM APIs
04/03/11 ananthk Added support for FM FTM Transmit APIs
===========================================================================*/
#ifdef CONFIG_FTM_FM
#include "diagpkt.h"
#include "log.h"
#include <sys/types.h>
#define FTM_FM_LOG_PKT_ID 65
#define FTM_FM_CMD_CODE 28
#define LOG_FTM_FM_C ((uint16) 0x14CC)
#define FEATURE_FTM_FM_DEBUG
#define DEFAULT_DATA_SIZE 249
/* FM6500 A0 chip version.
**/
#define FM6500_A0_VERSION (0x01010013)
/**
* * FM6500 2.0 chip version.
**/
#define FMQSOCCOM_FM6500_20_VERSION (0x01010010)
/**
* * FM6500 2.1 chip version.
**/
#define FMQSOCCOM_FM6500_21_VERSION (0x02010204)
/**
* WCN 2243 1.0's FM chip version.
*/
#define FMQSOCCOM_FM6500_WCN2243_10_VERSION (0x0302010A)
/**
* WCN 2243 2.0's FM chip version.
*/
#define FMQSOCCOM_FM6500_WCN2243_20_VERSION (0x04020205)
extern int chipVersion;
/* RDS Group processing parameters */
#define FM_RX_RDS_GRP_RT_EBL 1
#define FM_RX_RDS_GRP_PS_EBL 2
#define FM_RX_RDS_GRP_AF_EBL 4
#ifdef FM_SOC_TYPE_CHEROKEE
#define FM_RX_RDS_GRP_PS_SIMPLE_EBL 8
#define FM_RX_RDS_GRP_ECC_EBL 32
#define FM_RX_RDS_GRP_PTYN_EBL 64
#define FM_RX_RDS_GRP_RT_PLUS_EBL 128
#else
#define FM_RX_RDS_GRP_PS_SIMPLE_EBL 16
#endif
/* lower and upper band limits of regions */
#define REGION_US_EU_BAND_LOW 87500
#define REGION_US_EU_BAND_HIGH 107900
#define REGION_JAPAN_STANDARD_BAND_LOW 76000
#define REGION_JAPAN_STANDARD_BAND_HIGH 90000
#define REGION_JAPAN_WIDE_BAND_LOW 90000
#define REGION_JAPAN_WIDE_BAND_HIGH 108000
#define V4L2_CID_PRIVATE_BASE 0x08000000
#define MAX_RDS_PS_LENGTH 108
#define MAX_RDS_RT_LENGTH 64
#define V4L2_CID_PRIVATE_IRIS_RDS_GRP_COUNTERS_EXT 0x08000042
typedef enum {
V4L2_CID_PRIVATE_IRIS_HLSI = (V4L2_CID_PRIVATE_BASE + 0x1d),
V4L2_CID_PRIVATE_IRIS_SOFT_MUTE,
V4L2_CID_PRIVATE_IRIS_RIVA_ACCS_ADDR,
V4L2_CID_PRIVATE_IRIS_RIVA_ACCS_LEN,
V4L2_CID_PRIVATE_IRIS_RIVA_PEEK,
V4L2_CID_PRIVATE_IRIS_RIVA_POKE,
V4L2_CID_PRIVATE_IRIS_SSBI_ACCS_ADDR,
V4L2_CID_PRIVATE_IRIS_SSBI_PEEK,
V4L2_CID_PRIVATE_IRIS_SSBI_POKE,
V4L2_CID_PRIVATE_IRIS_TX_TONE,
V4L2_CID_PRIVATE_IRIS_RDS_GRP_COUNTERS,
V4L2_CID_PRIVATE_IRIS_SET_NOTCH_FILTER,
V4L2_CID_PRIVATE_IRIS_AGC_CTRL = 0x08000043,
V4L2_CID_PRIVATE_IRIS_AGC_STATE,
V4L2_CID_PRIVATE_IRIS_READ_DEFAULT = 0x00980928,//using private CIDs under userclass
V4L2_CID_PRIVATE_IRIS_WRITE_DEFAULT,
}v4l2_cid_private_iris_t_copy;
typedef enum
{
/* Total no. of PS names that can be transmitted : 12
Width of each transmitted PS name is : 8
Total no. of PS characters that can be transmitted : (12*8 = 96)
*/
MAX_TX_PS_LEN = 96,
MAX_TX_PS_RPT_CNT = 15,
}FmTxPSFeatures;
/* FTM FM command IDs */
typedef enum
{
#ifdef FEATURE_FTM_FM_DEBUG
FTM_FM_RX_SET_POWER_MODE = 13,
FTM_FM_RX_SET_SIGNAL_THRESHOLD = 14,
FTM_FM_RX_GET_RSSI_LIMIT = 16,
FTM_FM_RX_GET_PS_INFO = 17,
FTM_FM_RX_GET_RT_INFO = 18,
FTM_FM_RX_GET_AF_INFO = 19,
FTM_FM_RX_SEARCH_STATIONS = 20,
FTM_FM_RX_SEARCH_RDS_STATIONS = 21,
FTM_FM_RX_SEARCH_STATIONS_LIST = 22,
FTM_FM_RX_CANCEL_SEARCH = 23,
FTM_FM_RX_RDS_GROUP_PROC_OPTIONS = 25,
FTM_FM_RX_RDS_PI_MATCH_OPTIONS = 26,
FTM_FM_TX_GET_PS_FEATURES = 36,
FTM_FM_TX_TX_PS_INFO = 38,
FTM_FM_TX_STOP_PS_INFO_TX = 39,
FTM_FM_TX_TX_RT_INFO = 40,
FTM_FM_TX_STOP_RT_INFO_TX = 41,
FTM_FM_RX_GET_SIGNAL_THRESHOLD = 46,
FTM_FM_FMWAN_REG_RD = 51,
FTM_FM_RX_GET_DEFAULTS = 62,
FTM_FM_RX_SET_DEFAULTS = 63,
FTM_FM_RX_GET_SINR_SAMPLES = 64,
FTM_FM_RX_SET_SINR_SAMPLES = 65,
FTM_FM_RX_GET_SINR_THRESHOLD = 66,
FTM_FM_RX_SET_SINR_THRESHOLD = 67,
FTM_FM_RX_GET_ONCHANNEL_TH = 68,
FTM_FM_RX_SET_ONCHANNEL_TH = 69,
FTM_FM_RX_GET_OFFCHANNEL_TH = 70,
FTM_FM_RX_SET_OFFCHANNEL_TH = 71,
FTM_FM_TX_PWR_LVL_CFG = 72,
#endif /* FEATURE_FTM_FM_DEBUG */
FTM_FM_RX_ENABLE_RECEIVER = 7,
FTM_FM_RX_DISABLE_RECEIVER = 8,
FTM_FM_RX_CONFIGURE_RECEIVER = 9,
FTM_FM_RX_SET_MUTE_MODE = 10,
FTM_FM_RX_SET_STEREO_MODE = 11,
FTM_FM_RX_SET_STATION = 12,
FTM_FM_RX_GET_STATION_PARAMETERS = 15,
FTM_FM_RX_RDS_GROUP_OPTIONS = 24,
FTM_FM_TX_ENABLE_TRANSMITTER = 33,
FTM_FM_TX_DISABLE_TRANSMITTER = 34,
FTM_FM_TX_CONFIGURE_TRANSMITTER = 35,
FTM_FM_TX_SET_STATION = 37,
FTM_FM_TX_TX_RDS_GROUPS = 42,
FTM_FM_TX_TX_CONT_RDS_GROUPS = 43,
FTM_FM_TX_TX_RDS_CTRL = 44,
FTM_FM_TX_GET_RDS_GROUP_BUF_SIZE = 45,
FTM_FM_BUS_WRITE = 47,
FTM_FM_BUS_READ = 48,
FTM_FM_NOTIFY_WAN = 49,
FTM_FM_NOTIFY_FM = 50,
FTM_FM_ROUTE_AUDIO = 52,
FTM_FM_RX_SET_AF_THRESHOLD = 53,
FTM_FM_RX_SET_RSSI_CHECK_TIMER = 54,
FTM_FM_RX_SET_RDS_PI_TIMER = 55,
FTM_FM_RX_GET_AF_THRESHOLD = 56,
FTM_FM_RX_GET_RSSI_CHECK_TIMER = 57,
FTM_FM_RX_GET_RDS_PI_TIMER = 58,
FTM_FM_RX_GET_RDS_ERR_COUNT = 59,
FTM_FM_RX_RESET_RDS_ERR_COUNT = 60,
FTM_FM_TX_SEARCH_STATIONS = 61,
FTM_FM_SET_HLSI = 100,
FTM_FM_SET_SOFT_MUTE = 101,
FTM_FM_SET_ANTENNA = 102,
FTM_FM_SET_NOTCH_FILTER = 103,
FTM_FM_READ_RDS_GRP_CNTRS = 104,
FTM_FM_SET_TONE_GENERATION = 105,
FTM_FM_PEEK_SSBI = 106,
FTM_FM_POKE_SSBI = 107,
FTM_FM_PEEK_RIVA_WORD = 108,
FTM_FM_POKE_RIVA_WORD = 109,
FTM_FM_ENABLE_AUDIO = 111,
FTM_FM_DISABLE_AUDIO = 112,
FTM_FM_VOLUME_SETTING = 113,
FTM_FM_READ_RDS_GRP_CNTRS_EXT = 114,
FTM_FM_SET_GET_RESET_AGC = 115,
FTM_FM_MAX
} ftm_fm_sub_cmd_type;
#define XFR_CTRL_OFFSET 0x1F
/* Wait time for ensuring XFR is generated */
#define WAIT_ON_ISR_DELAY 15000 //15 ms
#define AFTH_OFFSET 0x2E
#define CHCOND_OFFSET 0x22
#define RDSTIMEOUT_OFFSET 0x25
#define FM_SLAVE_ADDR 0x2A
#define RDSERR_OFFSET 0x24
#define RDSRESET_OFFSET 0x20
#define BLOCKS_PER_GROUP 0x04
#define FTM_FM_RDS_COUNT 0x11
#define MAX_RIVA_DATA_LEN 245
#define MAX_RIVA_PEEK_RSP_SIZE 251
#define SSBI_PEEK_DATA_SIZE 1
#define IRIS_BUF_PEEK 6
#define IRIS_BUF_SSBI_PEEK IRIS_BUF_PEEK+1
#define IRIS_BUF_RDS_CNTRS IRIS_BUF_SSBI_PEEK+1
#define IRIS_BUF_RD_DEFAULT IRIS_BUF_RDS_CNTRS+1
#ifdef FM_SOC_TYPE_CHEROKEE
#define RDS_GRP_CNTRS_SIZE 48
#else
#define RDS_GRP_CNTRS_SIZE 36
#endif
/* Generic result, used for any command that only returns an error code */
typedef enum
{
FTM_FM_SUCCESS,
FTM_FAIL,
FTM_FILE_DOES_NOT_EXIST,
FTM_MMC_ERROR,
FTM_FM_UNRECOGNIZED_CMD,
FTM_NO_RESOURCES,
FTM_FM_PENDING,
FTM_INVALID_PARAM,
FTM_FM_DISALLOWED,
FTM_TEST_NOT_IMPLEMENTED,
FTM_CUST_HW_ID_UNKNOWN,
FTM_FM_BUS_WRITE_ERROR,
FTM_FM_BUS_READ_ERROR,
FTM_FM_CLIENT_MAX,
} ftm_fm_api_result_type;
/* FM power state enum */
typedef enum
{
FM_POWER_OFF,
FM_POWER_TRANSITION,
FM_RX_ON,
FM_TX_ON
}fm_power_state;
/* FM command status enum */
typedef enum
{
FM_CMD_SUCCESS,
FM_CMD_PENDING,
FM_CMD_NO_RESOURCES,
FM_CMD_INVALID_PARAM,
FM_CMD_DISALLOWED,
FM_CMD_UNRECOGNIZED_CMD,
FM_CMD_FAILURE
}fm_cmd_status_type;
/**
* FM event result.
*/
typedef enum
{
FM_EV_SUCCESS = 0,
/**< Event indicates success. */
FM_EV_FAILURE = 1,
/**< Event is a response to a command that failed */
FM_EV_CMD_DISALLOWED = 2,
/**< Event is a response to a command that was disallowed. */
FM_EV_CMD_INVALID_PARAM = 3
/**< Event is a response to a command that contained an invalid parameter. */
} FmEvResultType;
/**
* FM Receiver event names.
*/
typedef enum
{
/* -----------------------------------------------
1 -> FM Receiver initialization events
----------------------------------------------- */
FM_RX_EV_ENABLE_RECEIVER = 0,
FM_RX_EV_DISABLE_RECEIVER,
FM_RX_EV_CFG_RECEIVER,
/* -----------------------------------------------
2 -> FM receiver control events
----------------------------------------------- */
FM_RX_EV_MUTE_MODE_SET,
FM_RX_EV_STEREO_MODE_SET,
FM_RX_EV_RADIO_STATION_SET,
FM_RX_EV_PWR_MODE_SET,
FM_RX_EV_SET_SIGNAL_THRESHOLD,
/* -----------------------------------------------
3 -> FM receiver status events
----------------------------------------------- */
FM_RX_EV_RADIO_TUNE_STATUS,
FM_RX_EV_STATION_PARAMETERS,
FM_RX_EV_RDS_LOCK_STATUS,
FM_RX_EV_STEREO_STATUS,
FM_RX_EV_SERVICE_AVAILABLE,
FM_RX_EV_GET_SIGNAL_THRESHOLD,
/* -----------------------------------------------
4 -> FM search status events
----------------------------------------------- */
FM_RX_EV_SEARCH_IN_PROGRESS,
FM_RX_EV_SEARCH_RDS_IN_PROGRESS,
FM_RX_EV_SEARCH_LIST_IN_PROGRESS,
FM_RX_EV_SEARCH_COMPLETE,
FM_RX_EV_SEARCH_RDS_COMPLETE,
FM_RX_EV_SEARCH_LIST_COMPLETE,
FM_RX_EV_SEARCH_CANCELLED,
/* -----------------------------------------------
5 -> FM RDS status events
----------------------------------------------- */
FM_RX_EV_RDS_GROUP_DATA,
FM_RX_EV_RDS_PS_INFO,
FM_RX_EV_RDS_RT_INFO,
FM_RX_EV_RDS_AF_INFO,
FM_RX_EV_RDS_PI_MATCH_AVAILABLE,
/* -----------------------------------------------
6 -> FM RDS control events
----------------------------------------------- */
FM_RX_EV_RDS_GROUP_OPTIONS_SET,
FM_RX_EV_RDS_PROC_REG_DONE,
FM_RX_EV_RDS_PI_MATCH_REG_DONE,
FM_RX_EV_MAX_EVENT
} FmRxEventType;
typedef enum radio_band_type
{
FM_US_EU = 0x0,
FM_JAPAN_STANDARD = 0x1,
FM_JAPAN_WIDE = 0x2,
FM_USER_DEFINED = 0x4
}radio_band_type;
typedef enum emphasis_type
{
FM_RX_EMP75 = 0x0,
FM_RX_EMP50 = 0x1
}emphasis_type;
typedef enum channel_space_type
{
FM_RX_SPACE_200KHZ = 0x0,
FM_RX_SPACE_100KHZ = 0x1,
FM_RX_SPACE_50KHZ = 0x2
}channel_space_type;
typedef enum rds_system_type
{
FM_RX_RDBS_SYSTEM = 0x0,
FM_RX_RDS_SYSTEM = 0x1,
FM_RX_NO_RDS_SYSTEM = 0x2
}rds_sytem_type;
typedef struct band_limit_freq
{
uint32 lower_limit;
uint32 upper_limit;
}band_limit_freq;
typedef enum rds_sync_type
{
FM_RDS_NOT_SYNCED = 0x0,
FM_RDS_SYNCED = 0x1
}rds_sync_type;
typedef enum stereo_type
{
FM_RX_MONO = 0x0,
FM_RX_STEREO = 0x1
}stereo_type;
typedef enum fm_service_available
{
FM_SERVICE_NOT_AVAILABLE = 0x0,
FM_SERVICE_AVAILABLE = 0x1
}fm_service_available;
typedef enum mute_type
{
FM_RX_NO_MUTE = 0x00,
FM_RX_MUTE_RIGHT = 0x01,
FM_RX_MUTE_LEFT = 0x02,
FM_RX_MUTE_BOTH = 0x03
}mute_type;
typedef enum antenna_type
{
WIRED_HS,
PWB_ANT
}antenna_type;
typedef enum audio_output
{
HEADSET,
SPEAKER,
} audio_output;
/**
* RDS/RBDS Program Type type.
*/
typedef uint8 fm_prgm_type;
/**
* RDS/RBDS Program Identification type.
*/
typedef uint16 fm_prgmid_type;
/**
* RDS/RBDS Program Services type.
*/
typedef char fm_prm_services;
/**
* RDS/RBDS Radio Text type.
*/
/*
* FM RX RIVA peek request
*/
typedef struct fm_riva_peek_word
{
uint8 subOpcode;
uint32 startaddress;
uint8 payload_length;/*In Bytes*/
uint8 data[MAX_RIVA_DATA_LEN];
}__attribute__((packed))fm_riva_peek_word;
/*
* FM RX RIVA poke request
*/
typedef struct fm_riva_poke_word
{
uint8 subOpcode;
uint32 startaddress;
uint8 payload_length;/*In Bytes*/
uint8 data[MAX_RIVA_DATA_LEN];
}__attribute__((packed))fm_riva_poke_word ;
/*
* FM RX SSBI peek/poke request
*/
typedef struct fm_ssbi_poke_reg
{
uint16 startaddress;
uint8 data;
}__attribute__((packed))fm_ssbi_poke_reg;
/*
* fm Set Get Reset AGC request
*/
typedef struct fm_set_get_reset_agc_req
{
uint8 ucCtrl;
uint8 ucGainState;
}__attribute__((packed))fm_set_get_reset_agc_req;
typedef struct fm_set_get_reset_agc_params
{
uint8 ucCurrentGainState;
uint8 ucGainStateChange1;
uint8 ucGainStateChange2;
uint8 ucGainStateChange3;
}__attribute__((packed))fm_set_get_reset_agc_params;
typedef PACKED struct
{
uint8 status ;
uint8 data_length ;
uint8 data[DEFAULT_DATA_SIZE];
}__attribute__((packed)) readDefaults_data;
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
uint8 status ;
uint8 data_length ;
uint8 data[DEFAULT_DATA_SIZE];
}__attribute__((packed)) default_read_rsp;
/*RDS Group counters*/
typedef struct fm_rds_grp_cntrsparams
{
uint32 totalRdsSBlockErrors;
uint32 totalRdsGroups;
uint32 totalRdsGroup0;
uint32 totalRdsGroup2;
uint32 totalRdsBlockB;
uint32 totalRdsProcessedGroup0;
uint32 totalRdsProcessedGroup2;
uint32 totalRdsGroupFiltered;
uint32 totalRdsChangeFiltered;
}__attribute__((packed)) fm_rds_grp_cntrsparams;
/*RDS Group counters extended */
typedef struct fm_rds_grpcntrs_extendedparams
{
uint32 totalRdsSyncLoss;
uint32 totalRdsNotSync;
uint32 totalRdsSyncInt;
}__attribute__((packed)) fm_rds_grpcntrs_extendedparams;
typedef char fm_radiotext_info;
/**
* FM Global Paramaters struct.
*/
typedef struct
{
uint32 current_station_freq;/*a frequency in kHz the band range*/
uint8 service_available;
uint8 rssi; /* rssi range from 0-100*/
uint8 stype;
uint8 rds_sync_status;
uint8 mute_status;
uint8 ssbi_peek_data;
fm_prgmid_type pgm_id; /* Program Id */
fm_prgm_type pgm_type; /* Program type */
fm_prm_services pgm_services[MAX_RDS_PS_LENGTH];
fm_radiotext_info radio_text[MAX_RDS_RT_LENGTH];/* RT maximum is 64 bytes */
fm_riva_poke_word riva_data_access_params;
fm_set_get_reset_agc_params set_get_reset_agc_params;
fm_rds_grp_cntrsparams rds_group_counters;
fm_rds_grpcntrs_extendedparams rds_group_counters_extended;
readDefaults_data default_read_data;
uint8 fm_ps_length;
uint8 fm_rt_length;
uint8 sinr_samples;
char sinr_threshold;
uint8 On_channel_threshold;
uint8 Off_channel_threshold;
}fm_station_params_available;
/**
* FM Config Request structure.
*/
typedef struct fm_config_data
{
uint8 band;
uint8 emphasis;
uint8 spacing;
uint8 rds_system;
band_limit_freq bandlimits;
uint8 is_fm_tx_on;
}fm_config_data;
/*
* FM RDS Options Config Request
*/
typedef struct fm_rds_options
{
uint32 rds_group_mask;
uint32 rds_group_buffer_size;
uint8 rds_change_filter;
}fm_rds_options;
/*
* FM RX Search stations request
*/
typedef struct fm_search_stations
{
uint8 search_mode;
uint8 dwell_period;
uint8 search_dir;
}fm_search_stations;
/*
* FM RX Search DDS stations request
*/
typedef struct fm_search_rds_stations
{
uint8 search_mode;
uint8 dwell_period;
uint8 search_dir;
uint8 program_type;
uint16 program_id;
}fm_search_rds_stations;
/*
* FM RX Search station lists request
*/
typedef struct fm_search_list_stations
{
uint8 search_mode;
uint8 search_dir;
uint32 srch_list_max;
/**< Maximum number of stations that can be returned from a search. */
uint8 program_type;
}fm_search_list_stations;
/*
* FM RX I2C request
*/
typedef struct fm_i2c_params
{
uint8 slaveaddress;
uint8 offset;
uint8 payload_length;
uint8 data[64];
}fm_i2c_params;
/* Structure containing the RDS PS Info to be transmitted */
typedef struct _tsFtmFmRdsTxPsType
{
uint32 ulPSStrLen;
/**< The size of the cTxPSStrPtr buffer.
*/
uint32 ucTxPSRptCnt;
/**< The number of times each 8 character string is repeated before the next
string is transmitted.
*/
uint16 tusTxPi;
/**< RDS/RBDS Program Identification to use for Program Service transmissions.
*/
uint8 tucTxPSPty;
/**< The RDS/RBDS Program Type to transmit.
*/
const char cTxPSStrPtr[108];
/**< A pointer to a buffer containing the Program Service string to transmit
(must be null terminated).
*/
} tsFtmFmRdsTxPsType;
typedef struct _tsFtmFmRdsTxRtType
{
uint32 ulRTStrLen;
/**< The size of the cTxRTStrPtr buffer.
*/
uint16 tusTxPi;
/**< RDS/RBDS Program Identification to use for RadioText transmissions.
*/
uint8 tucTxRTPty;
/**< The RDS/RBDS Program Type to transmit.
*/
const char cTxRTStrPtr[65];
/**< A pointer to a buffer containing the RadioText string to transmit
(must be null terminated).
*/
} tsFtmFmRdsTxRtType;
typedef struct _ftm_def_data_rd_req
{
uint8 mode;
uint8 length;
uint8 param_len;
uint8 param;
} __attribute__((packed))ftm_fm_def_data_rd_req;
typedef struct _ftm_def_data_wr_req
{
uint8 mode;
uint8 length;
uint8 data[DEFAULT_DATA_SIZE];
} __attribute__((packed))ftm_fm_def_data_wr_req;
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 length; /*RDS PS string length*/
uint8 string[MAX_RDS_PS_LENGTH]; /* RDS string */
}__attribute__((packed)) fmrdsps_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 length; /*RDS PS string length*/
uint8 string[MAX_RDS_RT_LENGTH]; /* RDS string */
}__attribute__((packed)) fmrdsrt_response;
/**
* FM All Request Union type.
*/
typedef union fm_cfg_request
{
fm_config_data cfg_param;
uint8 mute_param;
uint8 stereo_param;
uint32 freq;
fm_rds_options rds_options;
uint8 power_mode;
uint8 signal_threshold;
fm_search_stations search_stations_options;
fm_search_rds_stations search_rds_stations_options;
fm_search_list_stations search_list_stations_options;
fm_i2c_params i2c_params;
uint32 rds_group_options;
uint16 rx_af_threshold;
uint8 rx_rssi_checktimer;
uint rx_rds_pi_timer;
tsFtmFmRdsTxPsType tuFmPSParams;
tsFtmFmRdsTxRtType tuFmRTParams;
uint8 soft_mute_param;
uint8 antenna_type;
uint8 tx_tone_param;
uint8 rds_grp_counters;
uint8 rds_grp_counters_ext;
uint8 hlsi;
uint8 sinr_samples;
char sinr_threshold;
uint8 On_channel_threshold;
uint8 Off_channel_threshold;
uint8 notch;
fm_riva_peek_word riva_peek_params;
fm_riva_poke_word riva_data_access_params;
fm_ssbi_poke_reg ssbi_access_params;
fm_set_get_reset_agc_req set_get_agc_req_parameters;
ftm_fm_def_data_rd_req rd_default;
ftm_fm_def_data_wr_req wr_default;
uint8 tx_pwr_cfg;
uint8 audio_output;
uint8 audio_vlm;
}fm_cfg_request;
/* FTM FM request type */
typedef PACKED struct
{
diagpkt_cmd_code_type cmd_code;
diagpkt_subsys_id_type subsys_id;
diagpkt_subsys_cmd_code_type subsys_cmd_code;
uint16 cmd_id; /* command id (required) */
uint16 cmd_data_len;
uint16 cmd_rsp_pkt_size;
byte data[1];
}__attribute__((packed))ftm_fm_pkt_type;
/* Set MuteMode Response */
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 mutemode;
}__attribute__((packed)) mutemode_response;
/* Set StereoMode Response */
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 stereomode;
}__attribute__((packed)) stereomode_response;
/* I2C Response */
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint32 length; /*length of data read */
uint8 data[64]; /* I2C read dat buffer */
}__attribute__((packed)) fmbusread_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 sub_opcode;
uint32 start_address;
uint8 length; /*length of data read */
uint8 data[MAX_RIVA_DATA_LEN]; /* read dat buffer */
}__attribute__((packed)) rivaData_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 data;
}__attribute__((packed)) ssbiPeek_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint8 uccurrentgainstate;
uint8 ucgainstatechange1;
uint8 ucgainstatechange2;
uint8 ucgainstatechange3;
}__attribute__((packed)) set_get_reset_agc_response;
/*Read RDS Group counters responce*/
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
fm_rds_grp_cntrsparams read_rds_cntrs;
}__attribute__((packed)) ReadRDSCntrs_responce;
/*Read RDS Group counters response*/
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
fm_rds_grpcntrs_extendedparams read_rds_cntrs_ext;
}__attribute__((packed)) ReadRDSCntrs_ext_response;
/* Generic Response */
typedef PACKED struct
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
}__attribute__((packed)) generic_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint16 afthreshold;
} fmrxsetafthreshold_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint8 sinr_sample;
} getsinrsamples_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
char sinr_threshold;
} getsinrthreshold_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint8 sinr_on_th;
} getonchannelthreshold_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint8 sinr_off_th;
} getoffchannelthreshold_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint8 rssitimer;
} fmrxsetrssichecktimer_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint8 rdspitimer;
} fmrxsetrdspitimer_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint8 threshold;
} threshold_response;
typedef PACKED struct
{
diagpkt_subsys_header_type header ;
char result ;
uint32 rdserrcount;
uint32 numofblocks;
} rds_err_count_response;
/* Custom response for Get station parameters request */
struct fm_rx_get_station_parameters_response_t
{
diagpkt_subsys_header_type header ; /*Diag header*/
char result ;/* result */
uint32 stationFreq;
/* The currently tuned frequency in kHz (Example: 96500 -> 96.5Mhz)*/
uint8 servAvble;
/* The current service available indicator for the current station */
uint8 rssi;
/* The current signal strength level (0-100 range). */
uint8 stereoProgram;
/* The current mono/stereo indicator for this station */
uint8 rdsSyncStatus;
/* The current RDS/RBDS synchronization status */
uint8 muteMode;
/* The current FM mute mode */
}__attribute__((packed));
/* FTM Log Packet - Used to send back the event of a HCI Command */
typedef PACKED struct
{
log_hdr_type hdr;
byte EvName;
/* Event ID indicates which event is being returned. */
byte EvResult;
byte data[1]; /* Variable length payload,
look at FTM log id for contents */
} ftm_fm_log_pkt_type;
#define FTM_FM_LOG_HEADER_SIZE (sizeof (ftm_fm_log_pkt_type) - 1)
typedef struct fm_rx_get_station_parameters_response_t fm_rx_get_station_parameters_response;
/*===========================================================================
FUNCTION ftm_fm_dispatch
DESCRIPTION
Dispatch routine for the various FM Rx/Tx commands. Copies the data into
a global union data structure before calling the processing routine
DEPENDENCIES
NIL
RETURN VALUE
A Packed structre pointer including the response to the FTM FM packet
SIDE EFFECTS
None
===========================================================================*/
void * ftm_fm_dispatch(ftm_fm_pkt_type *ftm_fm_pkt, uint16 length );
/*===========================================================================
FUNCTION ftm_fm_enable_audio
DESCRIPTION
This function is used to take the audio output mode from QRCT.
DEPENDENCIES
none
===========================================================================*/
PACKED void* ftm_fm_enable_audio( void );
PACKED void* ftm_fm_disable_audio( void );
PACKED void* ftm_fm_setting_volume(void);
#endif /* CONFIG_FTM_FM */

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/*
*Copyright (c) 2018-2020 Qualcomm Technologies, Inc.
*
*All Rights Reserved.
*Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
/* IPQ-QCA402X specific file */
#ifdef IPQ_AP_HOST_IOT
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <errno.h>
#include <fcntl.h>
#include <unistd.h>
#include <sys/ioctl.h>
#include <mtd/mtd-user.h>
#include "comdef.h"
#include "diagcmd.h"
#include "ftm_wlan.h"
#include "ftm_dbg.h"
#include "ftm_iot.h"
#ifdef IPQ_AP_HOST_IOT_QCA402X
#include "diag_api.h"
#endif /* IPQ_AP_HOST_IOT_QCA402X */
#ifdef IPQ_AP_HOST_IOT_IPQ50XX
#include "btdaemon.h"
#endif /* IPQ_AP_HOST_IOT_IPQ50XX */
#define NHDLC_TERM 126
#define NHDLC_VERSION 1
#define NHDLC_TERM_SIZE 1
#define FLASH_CMD_ID_POS 1
#define MAX_BUF_SIZE 2048
#define WAIT_TIME_MS 100
#define SUBSYS_CMD_ID_POS 2
#define RESERVED_CMD_ID 0
#define DUT_INTERFACE_SELECT 1
#define DUT_INTERFACE_ID_POS 4
#define DUT_INTERFACE_SELECT_POS 10
#define DIAG_HDR_LEN (sizeof(diag_nonhdlc_hdr_t) + NHDLC_TERM_SIZE)
#define FTM_IOT_LOG_HEADER_SIZE sizeof(ftm_iot_log_pkt_type)
/* Sempahore Timeout Period set for 2 seconds */
#define SEM_WAIT_TIMEOUT 5
#define MEMSET_RESET_VALUE 0
#define DIAG_HEADER_SIZE 12
extern void diagpkt_free(void *pkt);
void print_array(uint8_t *addr, int len)
{
int i;
int line = 1;
for (i = 0; i < len; i++) {
if (i == (line * 80)) {
DPRINTF(FTM_DBG_TRACE, "\n");
line++;
}
DPRINTF(FTM_DBG_TRACE, "%02X ", addr[i]);
}
DPRINTF(FTM_DBG_TRACE, "\n");
}
#ifdef IPQ_AP_HOST_IOT_QCA402X
/*===========================================================================
FUNCTION iot_thr_func_qca402x
DESCRIPTION
Continously polls QCA402X for asynchronous data responses and
logs receievd asynchronous data responses to Diag module using
log-submit()
DEPENDENCIES
NIL
RETURN VALUE
Returns NULL on failure. Function also exits with NULL return value
when main indicates that this thread should be stopped
SIDE EFFECTS
NONE
===========================================================================*/
void *iot_thr_func_qca402x(void *hdl)
{
int bytes = 0;
void *rsp2 = NULL;
int diag_hdr_len = DIAG_HDR_LEN ;
void *new_iot_ftm_rsp2_pkt = NULL;
if (!hdl) {
DPRINTF(FTM_DBG_ERROR, "Invalid iotd handle\n");
return NULL;
}
new_iot_ftm_rsp2_pkt = malloc(MAX_BUF_SIZE);
if (!new_iot_ftm_rsp2_pkt) {
DPRINTF(FTM_DBG_ERROR, "Could not allocate response packet \n");
return NULL;
}
while(1) {
if (thread_stop == 1) {
DPRINTF(FTM_DBG_TRACE, "FTMd: Exiting thread.\n");
break;
}
memset(new_iot_ftm_rsp2_pkt, MEMSET_RESET_VALUE, MAX_BUF_SIZE);
sem_wait(&iot_sem);
/*If we recieve a response from QCA402X, allocate a buffer using diag alloc with correct
subsystem code and length */
while ((bytes = diag_recv(hdl, (uint8_t *)new_iot_ftm_rsp2_pkt,
MAX_BUF_SIZE,
WAIT_TIME_MS)) >= 0) {
if (bytes > MAX_BUF_SIZE || bytes <= diag_hdr_len) {
DPRINTF(FTM_DBG_ERROR, "Could not allocate async log response packet\n");
free (new_iot_ftm_rsp2_pkt);
return NULL;
}
rsp2 = diagpkt_subsys_alloc(DIAG_SUBSYS_FTM, ftm_iot_cmd_code, (bytes - diag_hdr_len));
if (!rsp2) {
DPRINTF(FTM_DBG_ERROR, "Could not allocate async log response packet\n");
free (new_iot_ftm_rsp2_pkt);
return NULL;
}
/* Remove NHDLC header from recieved packet and store contents in
buffer allocated above */
memcpy(rsp2, (new_iot_ftm_rsp2_pkt + diag_hdr_len - NHDLC_TERM_SIZE),
(bytes - diag_hdr_len));
DPRINTF(FTM_DBG_TRACE, "FTMd: Asynchronous Data response has been sent.\n");
print_array((uint8_t *)rsp2, (bytes - diag_hdr_len) );
/*Remove an additional 4 bytes of header and log packet to diag module
asynchronously for further processing*/
log_submit(rsp2 + diag_hdr_len - NHDLC_TERM_SIZE);
diagpkt_free (rsp2);
memset(new_iot_ftm_rsp2_pkt, MEMSET_RESET_VALUE, MAX_BUF_SIZE);
}
sem_post(&iot_sem_async);
}
free (new_iot_ftm_rsp2_pkt);
diagpkt_free (rsp2);
pthread_exit(NULL);
}
/*===========================================================================
FUNCTION ftm_iot_dispatch_qca402x
DESCRIPTION
Function processes WIN IOT specific requests and relays to
QCA402x FTM layer for further processing. Recieves response
buffer from QCA402x and returns buffer meant for diag call back
This function handles NHDLC to HDLC translation and vice-versa
before sending and receivng buffers to QCA402X FTM layer
DEPENDENCIES
NIL
RETURN VALUE
Returns back buffer that is meant for diag callback
SIDE EFFECTS
NONE
===========================================================================*/
void *ftm_iot_dispatch_qca402x(void *iot_ftm_pkt, int pkt_len, void *hdl)
{
int diag_hdr_len = DIAG_HDR_LEN;
int ret = 0;
byte *payload_ptr = NULL;
void *rsp1 = NULL;
ftm_iot_req_pkt_type *new_iot_ftm_pkt = NULL;
void *new_iot_ftm_rsp_pkt = NULL;
char command[50] = {'\0'};
uint16_t *ftm_iot_flash_ptr = NULL;
uint16 ftm_iot_flash_cmd_code = 0;
/* The new packet length will be length of original request packet
+ size of NHDLC header + 1 byte of termination character */
int new_pkt_len = pkt_len + diag_hdr_len;
if (!iot_ftm_pkt || !pkt_len || !hdl) {
DPRINTF(FTM_DBG_ERROR, "Invalid ftm iot request packet or iotd handle\n");
return NULL;
}
new_iot_ftm_pkt = malloc(sizeof(ftm_iot_req_pkt_type) + pkt_len + NHDLC_TERM_SIZE);
if (!new_iot_ftm_pkt) {
DPRINTF(FTM_DBG_ERROR, "Could not create new ftm iot request packet\n");
return NULL;
}
memset(new_iot_ftm_pkt, MEMSET_RESET_VALUE, (sizeof(ftm_iot_req_pkt_type) + pkt_len + NHDLC_TERM_SIZE));
new_iot_ftm_rsp_pkt = malloc(MAX_BUF_SIZE);
if (!new_iot_ftm_rsp_pkt) {
DPRINTF(FTM_DBG_ERROR, "Could not create new ftm iot response packet\n");
free (new_iot_ftm_pkt);
return NULL;
}
memset(new_iot_ftm_rsp_pkt, MEMSET_RESET_VALUE, MAX_BUF_SIZE);
/* Add Non-HDLC header to request packet
and populate NHDLC header*/
new_iot_ftm_pkt->hdr.start = NHDLC_TERM;
new_iot_ftm_pkt->hdr.version = NHDLC_VERSION;
new_iot_ftm_pkt->hdr.length = pkt_len;
memcpy(&(new_iot_ftm_pkt->payload), iot_ftm_pkt, pkt_len);
payload_ptr = (byte *) &(new_iot_ftm_pkt->payload);
*( payload_ptr + pkt_len) = NHDLC_TERM;
ftm_iot_cmd_code = *(payload_ptr + SUBSYS_CMD_ID_POS);
ftm_iot_dut_interface_code = *(payload_ptr + DUT_INTERFACE_ID_POS);
ftm_iot_reserved_code = *(payload_ptr + SUBSYS_CMD_ID_POS + 1);
ftm_iot_flash_ptr = (uint16_t *) &(new_iot_ftm_pkt->payload);
ftm_iot_flash_cmd_code = *(ftm_iot_flash_ptr + FLASH_CMD_ID_POS);
/*Print packet after adding headers */
DPRINTF(FTM_DBG_TRACE, "FTMd: Request Packet of size %d bytes sent:\n", new_pkt_len);
print_array((uint8_t *)new_iot_ftm_pkt, new_pkt_len);
/*If the request packet it a DUT interface selection command,
update interface number and return a response packet that
is an encho of the request packet. ( In the case of multiple
QCA402x DUT attaches on IPQ platforms) */
if (((ftm_iot_cmd_code == MFG_CMD_ID_BLE_HCI) || (ftm_iot_cmd_code == MFG_CMD_ID_I15P4_HMI))
&& (ftm_iot_dut_interface_code == DUT_INTERFACE_SELECT)
&& (ftm_iot_reserved_code == RESERVED_CMD_ID)){
interface = *(payload_ptr + DUT_INTERFACE_SELECT_POS) - 1;
if (interface < 0) {
DPRINTF(FTM_DBG_ERROR, "Invalid DUT interface selection command\n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
rsp1 = diagpkt_subsys_alloc(DIAG_SUBSYS_FTM, ftm_iot_cmd_code, pkt_len);
if (!rsp1){
DPRINTF(FTM_DBG_ERROR, "Could not allocate response packet for interface selection\n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
memcpy(rsp1, iot_ftm_pkt, pkt_len);
DPRINTF(FTM_DBG_TRACE, "FTMd: The DUT interface selected is %d \n",interface);
DPRINTF(FTM_DBG_TRACE, "FTMd: DUT interface resp packet of size %d bytes sent:\n",pkt_len);
print_array((uint8_t *)rsp1, pkt_len);
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
/*This resp pointer will be freed by diag later*/
return rsp1;
}
/*If the request packet is a MFG PROG command,
launch flash script and return a response packet that indicates
flashing mode of QCA402x is enabled or disabled */
if ((ftm_iot_flash_cmd_code == MFG_CMD_ID_MISC_PROG_MODE)){
if (ftm_iot_dut_interface_code == MFG_FLASH_ON){
strlcpy(command, "/usr/bin/qca402x_flash.sh flash on", sizeof(command));
}
if (ftm_iot_dut_interface_code == MFG_FLASH_OFF){
strlcpy(command, "/usr/bin/qca402x_flash.sh flash off", sizeof(command));
}
if (ftm_iot_dut_interface_code == MFG_USB_OFF){
strlcpy(command, "/usr/bin/qca402x_flash.sh usb-select off", sizeof(command));
}
if (ftm_iot_dut_interface_code == MFG_USB_ON){
strlcpy(command, "/usr/bin/qca402x_flash.sh usb-select on", sizeof(command));
}
if (ftm_iot_dut_interface_code == MFG_EDL_OFF){
strlcpy(command, "/usr/bin/qca402x_flash.sh edl off", sizeof(command));
}
if (ftm_iot_dut_interface_code == MFG_EDL_ON){
strlcpy(command, "/usr/bin/qca402x_flash.sh edl on", sizeof(command));
}
/*Return with NULL if string is empty or packet length is less than
10 for a DUT interface selection command to make sure there will be
no out of bound access */
if ( (command[0] == '\0') || (pkt_len <= DUT_INTERFACE_ID_POS) ) {
DPRINTF(FTM_DBG_ERROR, "Error: Invalid MFG Program command\n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
system(command);
DPRINTF(FTM_DBG_TRACE, "\n FTMd: Sent system command: %s \n", command);
/* Check of size for packet pointed to by payload_ptr has been done above
using pkt_len to make sure there is no out of bound access */
*(payload_ptr + DUT_INTERFACE_ID_POS) = MFG_PROG_RESP;
rsp1 = diagpkt_subsys_alloc(DIAG_SUBSYS_FTM, ftm_iot_cmd_code, pkt_len);
if (!rsp1){
DPRINTF(FTM_DBG_ERROR, "Could not allocate response packet for MFG flash commands\n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
memcpy(rsp1, payload_ptr, pkt_len);
DPRINTF(FTM_DBG_TRACE, "FTMd: MFG Flash resp packet of size %d bytes sent:\n",pkt_len);
print_array((uint8_t *)rsp1, pkt_len);
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
/*This resp pointer will be freed by diag later*/
return rsp1;
}
sem_wait(&iot_sem_async);
/* Call IPQ-QCA402x diag APIs */
ret = diag_send(hdl, interface, (uint8_t *)new_iot_ftm_pkt, new_pkt_len);
if ((ret < 0) || (ret > MAX_BUF_SIZE)) {
DPRINTF(FTM_DBG_ERROR, "Could not send the request packet to QCA402x \n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
ret = diag_recv(hdl, (uint8_t *)new_iot_ftm_rsp_pkt, MAX_BUF_SIZE, WAIT_TIME_MS);
if ((ret < 0) || (ret > MAX_BUF_SIZE) || (ret <= diag_hdr_len)) {
DPRINTF(FTM_DBG_ERROR, "Could not recieve packet from QCA402x\n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
DPRINTF(FTM_DBG_TRACE,"Received Command Response of %d bytes\n",ret);
print_array((uint8_t *)new_iot_ftm_rsp_pkt, ret);
rsp1 = diagpkt_subsys_alloc(DIAG_SUBSYS_FTM, ftm_iot_cmd_code, (ret - diag_hdr_len));
if (!rsp1){
DPRINTF(FTM_DBG_ERROR, "Could not allocate response packet\n");
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
return NULL;
}
memcpy(rsp1, (new_iot_ftm_rsp_pkt + diag_hdr_len - NHDLC_TERM_SIZE), (ret - diag_hdr_len));
free (new_iot_ftm_pkt);
free (new_iot_ftm_rsp_pkt);
sem_post(&iot_sem);
/*This resp pointer will be freed by diag module later*/
return (void *)rsp1;
}
#endif /* IPQ_AP_HOST_IOT_QCA402X */
#ifdef IPQ_AP_HOST_IOT_IPQ50XX
/*===========================================================================
FUNCTION iot_thr_func_ipq50xx
DESCRIPTION
Continously polls IPQ50XX BTSS for asynchronous data responses and
logs received asynchronous data responses to Diag module using
log-submit()
DEPENDENCIES
NIL
RETURN VALUE
Returns NULL on failure. Function also exits with NULL return value
when main indicates that this thread should be stopped
SIDE EFFECTS
NONE
===========================================================================*/
void *iot_thr_func_ipq50xx(void *hdl)
{
int bytes_read = 0, handle = 0;
void *buffer = NULL;
void *rsp = NULL;
struct timespec ts;
ftm_bt_rsp_pkt_type *ftm_async_pkt;
buffer = malloc(MAX_BUF_SIZE);
if (!buffer)
{
DPRINTF(FTM_DBG_ERROR, "Could not allocate memory to the buffer \n");
return NULL;
}
memset(buffer, MEMSET_RESET_VALUE, MAX_BUF_SIZE);
if(hdl == NULL || *((int*)hdl) < 0)
{
DPRINTF(FTM_DBG_ERROR, "\n Invalid Handle received from BTSS \n");
free(buffer);
return NULL;
}
handle = *((int*)hdl);
while(1)
{
if (thread_stop == 1) {
DPRINTF(FTM_DBG_TRACE, "FTMd: Exiting thread.\n");
break;
}
if (clock_gettime(CLOCK_REALTIME, &ts) == -1)
{
DPRINTF(FTM_DBG_ERROR, "clock_gettime");
free(buffer);
return NULL;
}
ts.tv_sec += SEM_WAIT_TIMEOUT;
sem_timedwait(&iot_sem, &ts);
while((bytes_read = bt_daemon_receive(handle, &buffer)) > 0)
{
rsp = log_alloc(LOG_BT_HCI_EV_C, (DIAG_HEADER_SIZE + bytes_read));
if (!rsp)
{
DPRINTF(FTM_DBG_ERROR, "Could not allocate rsp packet \n");
free(buffer);
return NULL;
}
ftm_async_pkt = (ftm_bt_rsp_pkt_type*)rsp;
memcpy(ftm_async_pkt->buf, buffer, bytes_read);
DPRINTF(FTM_DBG_TRACE, "\n Printing the Async Packet sent to QDART\n");
print_array((uint8_t *)rsp, (DIAG_HEADER_SIZE + bytes_read));
log_submit(rsp);
log_free(rsp);
memset(buffer, MEMSET_RESET_VALUE, MAX_BUF_SIZE);
}
sem_post(&iot_sem_async);
}
free(buffer);
pthread_exit(NULL);
}
/*===========================================================================
FUNCTION ftm_iot_dispatch_ipq50xx
DESCRIPTION
Function processes WIN IOT specific requests and relays to
IPQ50XX BTSS for further processing. Constructs response packet
and returns buffer meant for callback.
DEPENDENCIES
NIL
RETURN VALUE
Returns back buffer that is meant for diag callback
SIDE EFFECTS
NONE
===========================================================================*/
void *ftm_iot_dispatch_ipq50xx(void *iot_ftm_pkt, int pkt_len, int *hdl)
{
void *rsp = NULL;
struct timespec ts;
int bytes_sent = -1;
if(hdl == NULL || *hdl < 0)
{
DPRINTF(FTM_DBG_ERROR, "\n Invalid Handle received from BTSS \n");
return NULL;
}
if (!iot_ftm_pkt)
{
DPRINTF(FTM_DBG_ERROR, "Invalid iot_ftm_pkt received \n");
return NULL;
}
if (clock_gettime(CLOCK_REALTIME, &ts) == -1)
{
perror("clock_gettime");
return NULL;
}
ts.tv_sec += SEM_WAIT_TIMEOUT;
sem_timedwait(&iot_sem_async, &ts);
DPRINTF(FTM_DBG_TRACE, "\n Request Packet received for IPQ50xx BTSS\n");
print_array((uint8_t *)iot_ftm_pkt, pkt_len);
bytes_sent = bt_daemon_send(*hdl, iot_ftm_pkt);
if(bytes_sent < 0)
{
perror("Unable to send Request Packet to IPQ50xx BTSS");
return NULL;
}
/* Constructing ACK Packet */
rsp = diagpkt_subsys_alloc(DIAG_SUBSYS_FTM, ftm_iot_cmd_code, pkt_len);
if (!rsp)
{
DPRINTF(FTM_DBG_ERROR, "\n Unable to allocate diag response packet \n");
return NULL;
}
memcpy(rsp, iot_ftm_pkt, pkt_len);
DPRINTF(FTM_DBG_TRACE, "\n ACK Packet constructed in FTM layer\n");
print_array((uint8_t *)rsp, pkt_len);
sem_post(&iot_sem);
/*This rsp pointer will be freed by diag later */
return rsp;
}
#endif /* IPQ_AP_HOST_IOT_IPQ50XX */
void *ftm_iot_dispatch(void *iot_ftm_pkt, int pkt_len, void *hdl)
{
void* retValue = NULL;
#ifdef IPQ_AP_HOST_IOT_QCA402X
retValue = ftm_iot_dispatch_qca402x(iot_ftm_pkt, pkt_len ,hdl);
#endif
#ifdef IPQ_AP_HOST_IOT_IPQ50XX
retValue = ftm_iot_dispatch_ipq50xx(iot_ftm_pkt, pkt_len ,(int *)hdl);
#endif
return retValue;
}
#endif /*ifdef IPQ_AP_HOST_IOT*/

131
feeds/wifi-ax/ftm/src/ftm_iot.h Executable file
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/*
*Copyright (c) 2018-2020 Qualcomm Technologies, Inc.
*
*All Rights Reserved.
*Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
/* IPQ-QCA402X specific file */
#ifdef IPQ_AP_HOST_IOT
#include <semaphore.h>
#include <time.h>
#include "diagpkt.h"
#include "log.h"
#define MFG_CMD_ID_BLE_HCI 4
#define MFG_CMD_ID_I15P4_HMI 5
#define MFG_CMD_ID_OTP_INVALID 256
#define MFG_CMD_ID_OTP_SET_BITS 257
#define MFG_CMD_ID_OTP_WRITE_BYTE 258
#define MFG_CMD_ID_OTP_READ_BYTE 259
#define MFG_CMD_ID_OTP_TLV_INIT 260
#define MFG_CMD_ID_OTP_TLV_READ 261
#define MFG_CMD_ID_OTP_TLV_WRITE 262
#define MFG_CMD_ID_OTP_TLV_STATUS 263
#define MFG_CMD_ID_OTP_TLV_DELETE 264
#define MFG_CMD_ID_RAWFLASH_INVALID 288
#define MFG_CMD_ID_RAWFLASH_CLEAR_BITS 289
#define MFG_CMD_ID_RAWFLASH_WRITE 290
#define MFG_CMD_ID_RAWFLASH_READ 291
#define MFG_CMD_ID_RAWFLASH_ERASE 292
#define MFG_CMD_ID_RAWFLASH_DISABLE_MFG 293
#define MFG_CMD_ID_FS_INVALID 304
#define MFG_CMD_ID_FS_READ 305
#define MFG_CMD_ID_FS_WRITE 306
#define MFG_CMD_ID_FS_DELETE 307
#define MFG_CMD_ID_FS_LIST_SETUP 308
#define MFG_CMD_ID_FS_LIST_NEXT 309
#define MFG_CMD_ID_FS_MOUNT 310
#define MFG_CMD_ID_FS_UNMOUNT 311
/* Add more MFG tool commands for QCA402x. These
command are interpreted internally within QCA402x */
#define MFG_CMD_ID_MISC_REBOOT 352
#define MFG_CMD_ID_MISC_ADDR_READ 353
#define MFG_CMD_ID_MISC_ADDR_WRITE 354
#define MFG_CMD_ID_MISC_HWSS_DONE 355
#define MFG_CMD_ID_MISC_XTAL_CAP_SET 356
#define MFG_CMD_ID_MISC_PART_SZ_GET 357
/* Add MFG tool command to enable flashing of QCA402x
by putting QCA402x in EDL mode and selecting USB mux
select option to tie USB port 81 on IPQ402x to QCA402x */
#define MFG_CMD_ID_MISC_PROG_MODE 358
/*Command to invalidate specified QCA402x Imageset */
#define MFG_CMD_ID_MISC_FWUP 359
/* Add MFG tool PROG_MODE subcommands to enable flashing
of QCA402x on IPQ807x. Interpretation of sub-commands is as
follows:
MFG_FLASH_ON - Put QCA402x into reset state, Put QCA402x in
EDL mode and enable USB port to be tied to QCA402x
MFG_FLASH_OFF - Pull QCA402x out of EDL mode and Pull QCA402x
out of reset
MFG_EDL_ON - Put QCA402x in EDL mode
MFG_FLASH_OFF - Pull QCA402x out of EDL mode
MFG_USB_ON - Enable USB port to be tied to QCA402x
MFG_USB_OFF - Enable USB port to be tied to IPQ807x
MFG_PROG_RESP - Expected response field
*/
enum flash_state {
MFG_PROG_RESP,
MFG_FLASH_ON,
MFG_FLASH_OFF,
MFG_EDL_ON,
MFG_EDL_OFF,
MFG_USB_ON,
MFG_USB_OFF
};
typedef struct
{
uint8 start;
uint8 version;
uint16 length;
} PACKED_STRUCT diag_nonhdlc_hdr_t;
typedef struct
{
diag_nonhdlc_hdr_t hdr;
byte payload[0];
} PACKED_STRUCT ftm_iot_req_pkt_type;
typedef struct
{
log_hdr_type hdr;
byte buf[1];
} PACKED_STRUCT ftm_bt_rsp_pkt_type;
/* Two semaphores are used to handle sequencing of requests, ack responses
and multiple asynchronous data responses from QCA402x */
sem_t iot_sem;
sem_t iot_sem_async;
int ftm_iot_cmd_code;
int ftm_iot_dut_interface_code;
int ftm_iot_reserved_code;
int interface;
int thread_stop;
void *ftm_iot_dispatch(void *iot_ftm_pkt, int pkt_len, void *hdl);
#ifdef IPQ_AP_HOST_IOT_QCA402X
void *ftm_iot_dispatch_qca402x(void *iot_ftm_pkt, int pkt_len, void *hdl);
void *iot_thr_func_qca402x(void *hdl);
#endif
#ifdef IPQ_AP_HOST_IOT_IPQ50XX
void *ftm_iot_dispatch_ipq50xx(void *iot_ftm_pkt, int pkt_len, int *hdl);
void *iot_thr_func_ipq50xx(void *hdl);
#endif
#endif /*ifdef IPQ_AP_HOST_IOT*/

1033
feeds/wifi-ax/ftm/src/ftm_main.c Executable file
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108
feeds/wifi-ax/ftm/src/ftm_nfc.c Executable file
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/*=========================================================================
NFC FTM C File
Description
This file contains the definitions of the function used to check
which chip is present on the device.
Copyright (c) 2013-2015 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
===========================================================================*/
#include "ftm_nfc.h"
CHIP_TYPE chipType = UNDEFINED_CHIP_TYPE;
/*=========================================================================
FUNCTION checkChip
DESCRIPTION
Checks whether it can open the NQ Kernel, if not, it means
the device has a QTI chip.
PARAMETERS
None
RETURN VALUE
void
===========================================================================*/
void checkChip( void )
{
int ret = 0;
ret = ftm_nq_nfc_open( ); // can you open the NQ Kernel?
if( ret > 0 ) // yes
{
printf( "%s: NQ CHIP \n", __func__ );
chipType = NQ_CHIP; // so it's an NQ Chip
ret = ftm_nq_nfc_close( ); // close the handle
if( ret != 0 ) // not successful?
{
printf( "%s: Could not close the File Handle for NQ Chip \n", __func__ );
chipType = CHIP_ERROR; // something is wrong
}
}
else
{
printf( "%s: QTI CHIP \n", __func__ );
chipType = QTI_CHIP;
}
}
/*=========================================================================
FUNCTION ftm_nfc_dispatch
DESCRIPTION
Dispatches QRCT commands and Chip Replies/Notifications/Data
to the required FTM NFC Chip Handler
PARAMETERS
ftm_nfc_pkt_type *nfc_ftm_pkt - FTM Packet
uint16 pkt_len - FTM Packet Length
RETURN VALUE
void *
===========================================================================*/
void* ftm_nfc_dispatch( ftm_nfc_pkt_type *nfc_ftm_pkt, uint16 pkt_len )
{
ftm_nfc_pkt_type *reply = NULL;
if( UNDEFINED_CHIP_TYPE == chipType )
{
printf( "%s: Checking Chip Type \n", __func__ );
checkChip( );
}
switch( chipType )
{
case NQ_CHIP:
if( nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id == FTM_NFC_REQ_CHIP_TYPE )
reply = PrepareRsp( nfc_ftm_pkt );
else
reply = ftm_nfc_dispatch_nq( nfc_ftm_pkt, pkt_len );
break;
case QTI_CHIP:
if( nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id == FTM_NFC_REQ_CHIP_TYPE )
reply = PrepareRsp( nfc_ftm_pkt );
else
reply = ftm_nfc_dispatch_qti( nfc_ftm_pkt, pkt_len );
break;
default:
printf( "%s: ERROR - THIS SHOULD HAVE NEVER BEEN REACHED, CHIP TYPE %d", __func__, chipType );
break;
}
return reply;
}

37
feeds/wifi-ax/ftm/src/ftm_nfc.h Executable file
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/*=========================================================================
NFC FTM HEADER File
Description
This file contains the definitions of the function used to check
which chip is present on the device.
Copyright (c) 2013-2016 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
#ifndef _FTM_NFC
#define _FTM_NFC
#include "ftm_nfcnq.h"
#define NFC_QCA1990 // Defnition to enable the NFC FTM inclusion
typedef enum _CHIP_TYPE{
UNDEFINED_CHIP_TYPE = 0,
QTI_CHIP = 1,
NQ_CHIP = 2,
CHIP_ERROR = 3,
MAXIMUM_CHIP_TYPE = 4,
} CHIP_TYPE;
extern CHIP_TYPE chipType;
void* ftm_nfc_dispatch(ftm_nfc_pkt_type *ftm_nfc_pkt, uint16 pkt_len);
void* ftm_nfc_dispatch_qti(ftm_nfc_pkt_type *ftm_nfc_pkt, uint16 pkt_len);
void ftm_nfc_dispatch_nq_fwdl();
void ftm_nfc_dispatch_nq_test(int argc, char **argv);
#endif // _FTM_NFC

807
feeds/wifi-ax/ftm/src/ftm_nfcnq.c Executable file
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/*=========================================================================
NQ NFC FTM C File
Description
This file contains the definitions of the functions
used to communicate with the NQ Chip.
Copyright (c) 2015-2016 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
===========================================================================*/
#include "ftm_nfcnq.h"
#include "ftm_nfc.h"
#include "ftm_nfcnq_fwdl.h"
/* Global variables */
pthread_t clientThread;
PNCI_MESSAGE pNCIMessage;
sem_t sRspReady;
int fdNfc = 0;
uint8_t nciReplyMessage[ 255 ] = { 0 };
NQ_CHIP_TYPE whatNQChip = UNKNOWN_NQ_CHIP_TYPE;
uint8_t RFdeactivateCmd[ ] = { 0x21, 0x06, 0x01, 0x03};
uint8_t EseDataRsp[ ] = { 0x03, 0x00, 0x21, 0x99, 0x50, 0xFE};
/*=========================================================================
FUNCTION ftm_nq_nfc_close
DESCRIPTION
Close the kernel driver for the NQ Chip
PARAMETERS
None
RETURN VALUE
int
===========================================================================*/
int ftm_nq_nfc_close( void )
{
fdNfc = close( fdNfc ); // close the file descriptor
LOG_MESSAGE( "%s : Exit with fdNfc = %d \n", __func__, fdNfc );
return fdNfc; // return the result
}
/*=========================================================================
FUNCTION ftm_nq_nfc_open
DESCRIPTION
Open the kernel driver for the NQ Chip
PARAMETERS
None
RETURN VALUE
int
===========================================================================*/
int ftm_nq_nfc_open( void )
{
fdNfc = open( "/dev/nq-nci", // try to open /dev/nq-nci
O_RDWR );
LOG_MESSAGE( "%s : Exit with fdNfc = %d \n", __func__, fdNfc );
return fdNfc; // return the result
}
/*=========================================================================
FUNCTION ftm_nfc_hw_reset
DESCRIPTION
Resets the NQ Chip
PARAMETERS
None
RETURN VALUE
int
===========================================================================*/
int ftm_nfc_hw_reset( void )
{
int ret = -1; // return value
do
{
if( fdNfc < 0 ) // fdNfc valid?
break;
ret = ioctl( fdNfc, NFC_SET_PWR, POWER_ON ); // turn the chip on
if( ret != 0 ) // successful?
{
LOG_ERROR( "%s ioctl( fdNfc, NFC_SET_PWR, POWER_ON ) returned %d", __func__, ret );
ret = -2;
break;
}
usleep( 1000 ); // wait
ret = ioctl( fdNfc, NFC_SET_PWR, POWER_OFF ); // turn the chip off
if( ret != 0 ) // successful?
{
LOG_ERROR( "%s ioctl( fdNfc, NFC_SET_PWR, POWER_OFF ) returned %d", __func__, ret );
ret = -3;
break;
}
usleep( 1000 ); // wait
ret = ioctl( fdNfc, NFC_SET_PWR, POWER_ON ); // turn the chip back on
if( ret != 0 ) // successful?
{
LOG_ERROR( "%s ioctl( fdNfc, NFC_SET_PWR, POWER_ON ) returned %d", __func__, ret );
ret = -4;
break;
}
}while( 0 );
return ret;
}
/*=========================================================================
FUNCTION PrintBytes
DESCRIPTION
Print bytes from an array
PARAMETERS
uint8_t *buf - Byte array to print
uint8_t len - Length of the array
RETURN VALUE
void
===========================================================================*/
void PrintBytes( uint8_t *buf, uint8_t len)
{
#ifdef NFC_FTM_DEBUG
int idx;
LOG_INFORMATION( "%s: Length: %d bytes \n", __func__, len ); // print the number of bytes
for( idx = 0; idx < len; idx++ ) // print every byte
{
LOG_INFORMATION( "%02x ", buf[idx] );
}
LOG_INFORMATION( "\n" );
#else
UNUSED_PARAMETER( buf );
UNUSED_PARAMETER( len );
#endif
}
/*=========================================================================
FUNCTION ftm_nfc_send
DESCRIPTION
Sends a message to the chip
PARAMETERS
uint8_t *buf - buffer to be sent
int len - the length of the buffer
RETURN VALUE
int ret - Status
===========================================================================*/
int ftm_nfc_send( uint8_t* buf )
{
int ret = -1; // return value
int retries = 15; // number of retries
int i;
uint16_t nciSendMessageLength;
PNCI_MESSAGE pMessageToSend = ( PNCI_MESSAGE ) buf;
pfirmware_download_packet_t pFirmwarePacketsToSend =
( pfirmware_download_packet_t ) buf;
do
{
if( fdNfc < 0 ) // fdNfc valid?
break;
if( NULL == buf ) // is the buffer valid?
{
ret = -2;
LOG_ERROR( "%s: buf == NULL Invalid Buffer", __func__ );
break;
}
if( ( pFirmwarePacketsToSend->fFragmentedPacket == FIRMWARE_DOWNLOAD_PACKET_FRAG_FLAG_NONE ) ||
( pFirmwarePacketsToSend->fFragmentedPacket == FIRMWARE_DOWNLOAD_PACKET_FRAG_FLAG_SET ) )
nciSendMessageLength = pFirmwarePacketsToSend->payloadLen +
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN +
FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN;
else
nciSendMessageLength = pMessageToSend->len + offsetof( NCI_MESSAGE, buf );
PrintBytes( buf, nciSendMessageLength );
do
{
retries--; // retries left
ret = write( fdNfc,
buf,
nciSendMessageLength ); // try to write
if( ret < nciSendMessageLength ) // did you write the length?
{
LOG_MESSAGE( "%s: %d = write( fdNfc, buf, nciSendMessageLength ), errno = %d, tries left = %d \n", __func__, ret, errno, retries );
continue; // try again
}
else
break; // done
} while( retries > 0 );
} while( 0 );
return ret;
}
/*=========================================================================
FUNCTION ProcessCommand
DESCRIPTION
Processes a Command for the NQ Chip
PARAMETERS
uint8_t *nci_data - NCI Data to send
RETURN VALUE
int ret - 0 if successfully received a reply
===========================================================================*/
int ProcessCommand( uint8_t *nci_data )
{
int ret = -1; // return value
struct timespec time_sec;
do
{
LOG_MESSAGE( "%s: FTM_NFC_SEND_DATA \n", __func__ );
ret = ftm_nfc_send( nci_data ); // send the message
LOG_MESSAGE( "%s: Wait for response \n", __func__ );
ret = clock_gettime( CLOCK_REALTIME, &time_sec );
if( ret == -1 )
{ // didn't get the time?
LOG_ERROR( "%s: clock_gettime for nci_data error \n", __func__ );
break;
}
time_sec.tv_sec += FTM_NFC_CMD_CMPL_TIMEOUT; // maximum wait
ret = sem_timedwait( &sRspReady, // start waiting
&time_sec );
if( ret == -1 ) // wait finished, not signalled?
{
if(!ese_dwp_test)
LOG_ERROR( "%s: nfc ftm command timed out \n", __func__ );
break;
}
} while( 0 );
return ret;
}
/*=========================================================================
FUNCTION ftm_nfc_read
DESCRIPTION
Reads a message from the chip
PARAMETERS
int len - the length of the buffer
RETURN VALUE
int ret - Number of bytes read
===========================================================================*/
int ftm_nfc_read( uint8_t* buf, int len )
{
int ret = -1;
do
{
if( fdNfc < 0 ) // fdNfc valid?
break;
ret = read( fdNfc, buf, len ); // try to read
} while( 0 );
return ret;
}
/*==========================================================================
FUNCTION
CommitLog
DESCRIPTION
This commits the log to Diag
PARAMETERS
NCI_MESSAGE pReadNCIMessage - Pointer to the read NCI Message
RETURN VALUE
void
==========================================================================*/
void CommitLog( PNCI_MESSAGE pReadNCIMessage )
{
pftm_nfc_log_pkt_type pLogBuff;
do
{
pLogBuff = ( ftm_nfc_log_pkt_type * ) log_alloc( LOG_NFC_FTM, // allocate a buffer for the log
pReadNCIMessage->len + offsetof( NCI_MESSAGE, buf ) + LOG_HEADER_LENGTH );
if( NULL == pLogBuff )
{
LOG_ERROR( "%s: log_alloc returned NULL \n", __func__ );
break;
}
memcpy( pLogBuff->data, // fill the buffer
pReadNCIMessage,
pReadNCIMessage->len + offsetof( NCI_MESSAGE, buf ) );
log_commit( pLogBuff ); // commit the log
} while ( 0 );
}
/*=============================================================================
FUNCTION
ProcessReturnedMessage
DESCRIPTION
Routine that processes an NCI Message that was returned and
will decide if the message is a notification or a response.
PARAMETERS
PNCI_MESSAGE pReadNCIMessage - Pointer to the read message
RETURN VALUE
void
==============================================================================*/
void ProcessReturnedMessage( PNCI_MESSAGE pReadNCIMessage )
{
switch( pReadNCIMessage->gid & NCIMT_NTF ) // check the first byte
{
case NCIMT_RSP: // reply?
sem_post( &sRspReady ); // notify the dispatch function
break;
case NCIMT_NTF: // notification?
if (pReadNCIMessage->oid == 0x05)
{
LOG_INFORMATION("\n << ...TAG DETECTED... >> \n");
printTecnologyDetails(pReadNCIMessage->buf[3],pReadNCIMessage->buf[2]);
sem_post( &sRfNtf );
ProcessCommand( RFdeactivateCmd );
}
case NCIMT_DATA: // data?
if (ese_dwp_test)
{
if( memcmp( EseDataRsp, nciReplyMessage, sizeof( EseDataRsp ) ) == 0 )
{
LOG_INFORMATION("\n << ESE detected over DWP >> \n\n");
}
}
if( log_status( LOG_NFC_FTM ) ) // logging enabled?
{
CommitLog( pReadNCIMessage );
}
break;
default:
LOG_ERROR( "%s: ERROR - SHOULD NOT HAVE REACHED THIS POINT", __func__ );
break;
}
}
/*=========================================================================
FUNCTION nfc_read_thread
DESCRIPTION
Thread that constantly looks for messages from the chip
PARAMETERS
void
RETURN VALUE
void
===========================================================================*/
void *nfc_read_thread( void *arg )
{
uint8_t readLength = 0;
int i;
uint8_t readNCIUpToLength = offsetof( NCI_MESSAGE, buf );
UNUSED_PARAMETER( arg );
for( ; ; ) // keep reading
{
readLength = ftm_nfc_read( nciReplyMessage, readNCIUpToLength ); // read the first 3 bytes
if( readLength == readNCIUpToLength ) // read the message up to NCI Len?
{
readLength = ftm_nfc_read( pNCIMessage->buf, // go and get the rest
pNCIMessage->len );
if( readLength == pNCIMessage->len ) // successful?
{
PrintBytes( nciReplyMessage, pNCIMessage->len + readNCIUpToLength );
ProcessReturnedMessage( pNCIMessage ); // Process the read message
}
}
}
}
/*==========================================================================
FUNCTION PrepareRsp
DESCRIPTION
Routine to prepare a response for diag.
PARAMETERS
ftm_nfc_pkt_type *nfc_ftm_pkt - FTM Packet
RETURN VALUE
void *
==========================================================================*/
void *PrepareRsp( ftm_nfc_pkt_type *nfc_ftm_pkt )
{
void *response = NULL;
switch( nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id )
{
case FTM_NFC_NFCC_COMMAND:
{
ftm_nfc_pkt_type *nfc_nci_rsp = ( ftm_nfc_pkt_type* ) diagpkt_subsys_alloc( DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof( ftm_nfc_pkt_type ) ); // get a Response Buffer for NFCC Command
if( NULL == nfc_nci_rsp )
{
LOG_ERROR( "%s: diagpkt_subsys_alloc( DIAG_SUBSYS_FTM, FTM_NFC_CMD_CODE, sizeof( ftm_nfc_pkt_type ) ) returned NULL \n", __func__ );
}
else
{
nfc_nci_rsp->ftm_nfc_hdr.nfc_cmd_id = FTM_NFC_NFCC_COMMAND;
nfc_nci_rsp->ftm_nfc_hdr.nfc_cmd_len = offsetof( ftm_nfc_cmd_header, nfc_cmd_len ) + offsetof( NCI_MESSAGE, buf ) + pNCIMessage->len ;
nfc_nci_rsp->nfc_nci_pkt_len = offsetof( NCI_MESSAGE, buf ) + pNCIMessage->len;
memcpy( nfc_nci_rsp->nci_data,
pNCIMessage,
nfc_nci_rsp->nfc_nci_pkt_len );
response = ( void* ) nfc_nci_rsp;
}
break;
}
case FTM_NFC_REQ_CHIP_TYPE:
{
// change from a NCI packet type to a request chip type packet type
ftm_nfc_chip_type_pkt_type *nfc_chip_type_rsp = ( ftm_nfc_chip_type_pkt_type* ) diagpkt_subsys_alloc( DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof( ftm_nfc_chip_type_pkt_type ) ); // get a Response Buffer for Request Chip Type Command
if( NULL == nfc_chip_type_rsp )
{
LOG_ERROR( "%s: diagpkt_subsys_alloc( DIAG_SUBSYS_FTM, FTM_NFC_CMD_CODE, sizeof( ftm_nfc_chip_type_pkt_type ) ) returned NULL \n", __func__ );
}
else
{
nfc_chip_type_rsp->nfc_chip_type_cmd_id = FTM_NFC_REQ_CHIP_TYPE;
nfc_chip_type_rsp->nfc_chip_type_pkt_len = 1; // only 1 byte for response packet data
if( chipType == 1 ) // 1 for QTI, 2 for NQ
nfc_chip_type_rsp->nfc_chip_type_pkt_data = FTM_NFC_QTI_CHIP;
else
nfc_chip_type_rsp->nfc_chip_type_pkt_data = FTM_NFC_NQ_CHIP;
response = ( void* ) nfc_chip_type_rsp;
}
break;
}
case FTM_NFC_FWPIN_CTRL:
{
// change from a NCI packet type to a firmware download packet type
ftm_nfc_fwdl_pkt_type *nfc_fwdl_rsp = ( ftm_nfc_fwdl_pkt_type* ) diagpkt_subsys_alloc( DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof( ftm_nfc_fwdl_pkt_type ) ); // get a Response Buffer for Firmware Download Pin Command
if( NULL == nfc_fwdl_rsp )
{
LOG_ERROR( "%s: diagpkt_subsys_alloc( DIAG_SUBSYS_FTM, FTM_NFC_CMD_CODE, sizeof( ftm_nfc_fwdl_pkt_type ) ) returned NULL \n", __func__ );
}
else
{
nfc_fwdl_rsp->nfc_fwdl_cmd_id = FTM_NFC_FWPIN_CTRL;
nfc_fwdl_rsp->nfc_fwdl_pkt_len = 1; // only 1 byte for response packet data
nfc_fwdl_rsp->nfc_fwdl_pkt_data = FTM_NFC_FWDL_SUCCESS; // 0 for fail, 1 for success
response = ( void* ) nfc_fwdl_rsp;
}
break;
}
default :
LOG_ERROR( "%s: ERROR - SHOULD NOT HAVE ENDED UP HERE: default case \n", __func__ );
break;
}
return response;
}
/*=========================================================================
FUNCTION ftm_nfc_nq_vs_nxp
DESCRIPTION
Check whether the chip is an NQ Chip
PARAMETERS
None
RETURN VALUE
int
===========================================================================*/
int ftm_nfc_nq_vs_nxp( void )
{
int ret = 0;
uint8_t coreResetCmd[ ] = { 0x20, 0x00, 0x01, 0x00 };
uint8_t coreResetRsp[ ] = { 0x40, 0x00, 0x03, 0x00, 0x11, 0x00 };
uint8_t coreInitCmd[ ] = { 0x20, 0x01, 0x00 };
do
{
ret = ProcessCommand( coreResetCmd ); // send a Core Reset CMD
if( ret == -1 ) // wait finished, not signalled?
{
LOG_ERROR( "%s: ProcessCommand( coreResetCmd ) error %d \n", __func__, ret );
break;
}
if( memcmp( coreResetRsp, nciReplyMessage, sizeof( coreResetRsp ) ) )
{ // not a good reply?
coreResetRsp[4] = 0x10;
if( memcmp( coreResetRsp, nciReplyMessage, sizeof( coreResetRsp ) ) )
{ // check if NCI version is 1.0
ret = -1;
LOG_ERROR( "%s: bad reply for coreResetRsp", __func__ );
break;
}
}
ret = ProcessCommand( coreInitCmd ); // send the message
if( ret == -1 ) // wait finished, not signalled?
{
LOG_ERROR( "%s: ProcessCommand( coreInitCmd ) error %d \n", __func__, ret );
break;
}
switch( nciReplyMessage[ CHIP_ID ] ) // what type of chip is it?
{
case 0x48:
whatNQChip = NQ_210;
LOG_INFORMATION( "Connected to NQ210 \n" );
break;
case 0x58:
whatNQChip = NQ_220;
LOG_INFORMATION( "Connected to NQ220 \n" );
break;
case 0x40:
case 0x41:
whatNQChip = NQ_310;
LOG_INFORMATION( "Connected to NQ310 \n" );
break;
case 0x50:
case 0x51:
whatNQChip = NQ_330;
LOG_INFORMATION( "Connected to NQ330 \n" );
break;
default:
whatNQChip = UNKNOWN_NQ_CHIP_TYPE;
ret = -1;
LOG_INFORMATION( "ERROR Connected to an unknown NQ Chip \n" );
break;
}
}while( 0 );
return ret;
}
/*=========================================================================
FUNCTION ftm_nfc_set_fwdl_pin
DESCRIPTION
Sets or resets the firmware download pin high or low
PARAMETERS
ftm_nfc_pkt_type *nfc_ftm_pkt - FTM Packet
RETURN VALUE
void
===========================================================================*/
void ftm_nfc_set_fwdl_pin( ftm_nfc_pkt_type *nfc_ftm_pkt )
{
int ret = 0;
// change from a NCI packet type to a firmware download packet type
pftm_nfc_fwdl_pkt_type pnfc_fwdl_pkt = ( pftm_nfc_fwdl_pkt_type ) nfc_ftm_pkt;
switch ( pnfc_fwdl_pkt->nfc_fwdl_pkt_data )
{
case 0:
ret = ftm_nfc_hw_reset( ); // Can you reset the hardware?
if( ret < 0 ) // successful?
{
LOG_ERROR( "%s: ftm_nfc_hw_reset() failed with ret = %d \n", __func__, ret );
break;
}
LOG_MESSAGE( "%s: Firmware download pin set LOW\n", __func__ );
break;
case 1:
ret = ioctl( fdNfc, NFC_SET_PWR, FIRMWARE_MODE );
if( ret != 0 ) // successful?
{
LOG_ERROR( "%s ioctl( fdNfc, NFC_SET_PWR, FIRMWARE_MODE ) returned %d", __func__, ret );
break;
}
LOG_MESSAGE( "%s: Firmware download pin set HIGH\n", __func__ );
break;
default :
LOG_ERROR( "%s: ERROR - SHOULD NOT HAVE ENDED UP HERE: default case \n", __func__ );
break;
}
ret = ftm_nq_nfc_close( ); // close the handle
if( ret != 0 ) // not successful?
{
LOG_ERROR( "\n\t %s: ftm_nq_nfc_close() failed with ret = %d \n", __func__, ret );
}
ret = ftm_nq_nfc_open( ); // open the kernel driver
if( ret < 0 ) // successful?
{
LOG_ERROR( "\n\t %s: ftm_nq_nfc_open() failed with ret = %d \n", __func__, ret );
}
}
/*=========================================================================
FUNCTION ftm_nfc_dispatch_nq
DESCRIPTION
Dispatches QRCT commands and Chip Replies/Notifications/Data
PARAMETERS
ftm_nfc_pkt_type *nfc_ftm_pkt - FTM Packet
uint16 pkt_len - FTM Packet Length
RETURN VALUE
void *
===========================================================================*/
void* ftm_nfc_dispatch_nq( ftm_nfc_pkt_type *nfc_ftm_pkt, uint16 pkt_len )
{
int ret = 0;
int len = 0;
struct timespec time_sec;
char *SkipNQHardwareCheck = NULL;
void *rsp = NULL;
UNUSED_PARAMETER( pkt_len );
do
{
if( !fdNfc ) // Already initialized?
{
ret = ftm_nq_nfc_open( ); // open the kernel driver
if( ret < 0 ) // successful?
{
LOG_ERROR( "\n\t %s: ftm_nq_nfc_open() failed with ret = %d \n", __func__, ret );
break;
}
ret = ftm_nfc_hw_reset( ); // Can you reset the hardware?
if( ret < 0 ) // successful?
{
LOG_ERROR( "%s: ftm_nfc_hw_reset() failed with ret = %d \n", __func__, ret );
break;
}
pNCIMessage = ( PNCI_MESSAGE ) nciReplyMessage;
ret = pthread_create( &clientThread, // Start the Read Thread
NULL,
&nfc_read_thread,
NULL );
if( ret != 0 ) // successful?
{
LOG_MESSAGE( "%s: pthread_create( nfc_read_thread ) failed with ret = %d \n", __func__, ret );
break;
}
SkipNQHardwareCheck = getenv( SKIP_NQ_HARDWARE_CHECK );
LOG_MESSAGE( "%s: SkipNQHardwareCheck = %s \n", __func__, SkipNQHardwareCheck );
if( NULL == SkipNQHardwareCheck ) // no value so check for NQ Chip?
{
ret = ftm_nfc_nq_vs_nxp( );
if( ret < 0 ) // Not an NQ Chip?
{
LOG_ERROR( "ERROR NOT A KNOWN NQ Chip \n" );
break;
}
}
else
{
LOG_INFORMATION( " Skipping NQ Chip Check \n" );
whatNQChip = SKIP_CHIP_CHECK;
}
LOG_INFORMATION( "FTM for NFC SUCCESSFULLY STARTED \n" );
}
if( UNKNOWN_NQ_CHIP_TYPE == whatNQChip )
{
LOG_ERROR( "ERROR This version of the chip is not accepted" );
break;
}
if( NULL == nfc_ftm_pkt ) // valid packet?
{
LOG_ERROR( "%s: Error : nfc_ftm_pkt is NULL \n", __func__ );
break;
}
if( offsetof( ftm_nfc_pkt_type, ftm_nfc_hdr ) < MIN_CMD_PKT_LEN )
{ // packet contains anything?
LOG_ERROR( "%s: Error : Invalid FTM Packet \n", __func__ );
break;
}
switch( nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id ) // what type of packet is it?
{
case FTM_NFC_NFCC_COMMAND: // NFC Command?
case FTM_NFC_SEND_DATA: // NFC Data?
ret = ProcessCommand( nfc_ftm_pkt->nci_data );
if( ret == -1 ) // wait finished, not signalled?
{
LOG_ERROR( "%s: ProcessCommand( nfc_ftm_pkt->nci_data ) error %d \n", __func__, ret );
break;
}
rsp = PrepareRsp( nfc_ftm_pkt ); // Prepare the response for Diag
break;
case FTM_NFC_REQ_CHIP_TYPE:
case FTM_NFC_FWPIN_CTRL:
ftm_nfc_set_fwdl_pin( nfc_ftm_pkt );
rsp = PrepareRsp( nfc_ftm_pkt ); // Prepare the response for Diag
break;
default :
LOG_ERROR( "%s: ERROR - SHOULD NOT HAVE ENDED UP HERE: default case \n", __func__ );
break;
}
} while( 0 );
return rsp;
}

168
feeds/wifi-ax/ftm/src/ftm_nfcnq.h Executable file
View File

@@ -0,0 +1,168 @@
/*=========================================================================
NQ NFC FTM Header File
Description
This file contains the declarations of the functions
used to communicate with the NQ Chip and various definitions.
Copyright (c) 2015-2017 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
===========================================================================*/
#ifndef _FTM_NFCNQ
#define _FTM_NFCNQ
#include "msg.h"
#include "diagpkt.h"
#include "diagcmd.h"
#include "errno.h"
#include <linux/ioctl.h>
#include <pthread.h>
#include <semaphore.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <fcntl.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <unistd.h>
#include "log.h"
#define LOG_ERROR( ... ) printf( __VA_ARGS__ )
#define LOG_INFORMATION( ... ) printf( __VA_ARGS__ )
#ifdef NFC_FTM_DEBUG
#define LOG_MESSAGE( ... ) printf( __VA_ARGS__ )
#else
#define LOG_MESSAGE( ... ) do{ } while ( FALSE )
#endif
typedef PACKED struct _ftm_nfc_cmd_header{
uint16 nfc_cmd_id;
uint16 nfc_cmd_len;
} ftm_nfc_cmd_header, *pftm_nfc_cmd_header;
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
ftm_nfc_cmd_header ftm_nfc_hdr;
uint16 nfc_nci_pkt_len;
byte nci_data[258];
}ftm_nfc_pkt_type, *pftm_nfc_pkt_type;
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
uint16 nfc_fwdl_cmd_id;
byte nfc_fwdl_pkt_len;
byte nfc_fwdl_pkt_data;
}ftm_nfc_fwdl_pkt_type, *pftm_nfc_fwdl_pkt_type;
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
uint16 nfc_chip_type_cmd_id;
byte nfc_chip_type_pkt_len;
byte nfc_chip_type_pkt_data;
}ftm_nfc_chip_type_pkt_type, *pftm_nfc_chip_type_pkt_type;
typedef PACKED struct{
log_hdr_type hdr;
byte data[1];
} ftm_nfc_log_pkt_type, *pftm_nfc_log_pkt_type;
typedef PACKED struct _NCI_MESSAGE
{
byte gid; // Group ID
byte oid; // Operation ID
byte len; // payload length in bytes
byte buf[ 252 ]; // Payload Buffer
} NCI_MESSAGE, *PNCI_MESSAGE;
typedef enum
{
NCIMT_DATA = 0x00, /**< DATA packet. */
NCIMT_CMD = 0x20, /**< Control packet - Command. */
NCIMT_RSP = 0x40, /**< Control packet - Response. */
NCIMT_NTF = 0x60, /**< Control packet - Notification. */
NCIMT_INVALID_VALUE = 0xFF, /**< Invalid packet type. */
NCIMT_BITMASK = 0xE0, /**< Most significant three bits. */
NCIMT_BITSHIFT = 5
} NCIMT;
typedef enum
{
UNKNOWN_NQ_CHIP_TYPE = 0,
SKIP_CHIP_CHECK = 1,
NQ_110 = 11,
NQ_120 = 12,
NQ_210 = 21,
NQ_220 = 22,
NQ_310 = 31,
NQ_330 = 33,
MAXIMUM_NQ_CHIP_TYPE
} NQ_CHIP_TYPE;
struct nqx_devinfo
{
unsigned char chip_type;
unsigned char rom_version;
unsigned char fw_major;
unsigned char fw_minor;
};
union nqx_uinfo
{
unsigned int i;
struct nqx_devinfo info;
};
int ftm_nq_nfc_open( void );
int ftm_nq_nfc_close( void );
int ftm_nfc_hw_reset( void );
int ProcessCommand( uint8_t *nci_data );
void *PrepareRsp( ftm_nfc_pkt_type *nfc_ftm_pkt );
void *ftm_nfc_dispatch_nq( ftm_nfc_pkt_type *nfc_ftm_pkt, uint16 pkt_len);
void *nfc_read_thread( void *arg );
extern sem_t sRfNtf;
extern int ese_dwp_test;
extern void printTecnologyDetails(char technology, char protocol);
#define FTM_NFC_CMD_CODE 55
#define FTM_NFC_NFCC_COMMAND 0x02
#define FTM_NFC_SEND_DATA 0x03
#define FTM_NFC_REQ_CHIP_TYPE 0x04
#define FTM_NFC_FWPIN_CTRL 0x05
#define FTM_NFC_CMD_CMPL_TIMEOUT 3
#define FTM_NFC_QTI_CHIP 0x00
#define FTM_NFC_NQ_CHIP 0x01
#define FTM_NFC_FWDL_SUCCESS 0x01
#define MIN_CMD_PKT_LEN 4 // Minimum length for a valid FTM packet, 2 bytes for Diag header, 2 bytes for command ID
#define LOG_NFC_FTM 0x1802
#define LOG_HEADER_LENGTH 12
#define NFC_SET_PWR _IOW(0xE9, 0x01, unsigned int)
#define NFCC_GET_INFO _IOW(0xE9, 0x09, unsigned int)
#define POWER_OFF 0
#define POWER_ON 1
#define FIRMWARE_MODE 2
#define EXPECTED_CORE_INIT_RSP_LEN 29
#define CHIP_ID 24
#define SKIP_NQ_HARDWARE_CHECK "SkipNQHardwareCheck"
#define HARDWARE_TYPE_TIMEOUT 2
#define UNUSED_PARAMETER( x ) ( void )( x )
#endif // _FTM_NFCNQ

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feeds/wifi-ax/ftm/src/ftm_nfcnq_fwdl.c Executable file
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@@ -0,0 +1,664 @@
/*
* Copyright (c) 2016-2017 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* Not a Contribution.
* Apache license notifications and license are retained
* for attribution purposes only.
*/
/*
* Copyright (C) 2015 NXP Semiconductors
* The original Work has been changed by NXP Semiconductors.
*
* Copyright (C) 2010 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
/*=========================================================================
FTM NFC NQ Firmware Download Source File
Description
This file contains the definitions of the functions
used to download firmware onto the NQ Chip.
===========================================================================*/
#include "ftm_nfcnq_fwdl.h"
#include "ftm_nfcnq.h"
unsigned int chip_version = 0x00;
/* lookup table for CRC-16-CCITT calculation */
static uint16_t const crcTable[ 256 ] =
{ 0x0000, 0x1021, 0x2042, 0x3063, 0x4084, 0x50a5, 0x60c6, 0x70e7, 0x8108, 0x9129, 0xa14a, 0xb16b, 0xc18c, 0xd1ad,
0xe1ce, 0xf1ef, 0x1231, 0x0210, 0x3273, 0x2252, 0x52b5, 0x4294, 0x72f7, 0x62d6, 0x9339, 0x8318, 0xb37b,
0xa35a, 0xd3bd, 0xc39c, 0xf3ff, 0xe3de, 0x2462, 0x3443, 0x0420, 0x1401, 0x64e6, 0x74c7, 0x44a4, 0x5485,
0xa56a, 0xb54b, 0x8528, 0x9509, 0xe5ee, 0xf5cf, 0xc5ac, 0xd58d, 0x3653, 0x2672, 0x1611, 0x0630, 0x76d7,
0x66f6, 0x5695, 0x46b4, 0xb75b, 0xa77a, 0x9719, 0x8738, 0xf7df, 0xe7fe, 0xd79d, 0xc7bc, 0x48c4, 0x58e5,
0x6886, 0x78a7, 0x0840, 0x1861, 0x2802, 0x3823, 0xc9cc, 0xd9ed, 0xe98e, 0xf9af, 0x8948, 0x9969, 0xa90a,
0xb92b, 0x5af5, 0x4ad4, 0x7ab7, 0x6a96, 0x1a71, 0x0a50, 0x3a33, 0x2a12, 0xdbfd, 0xcbdc, 0xfbbf, 0xeb9e,
0x9b79, 0x8b58, 0xbb3b, 0xab1a, 0x6ca6, 0x7c87, 0x4ce4, 0x5cc5, 0x2c22, 0x3c03, 0x0c60, 0x1c41, 0xedae,
0xfd8f, 0xcdec, 0xddcd, 0xad2a, 0xbd0b, 0x8d68, 0x9d49, 0x7e97, 0x6eb6, 0x5ed5, 0x4ef4, 0x3e13, 0x2e32,
0x1e51, 0x0e70, 0xff9f, 0xefbe, 0xdfdd, 0xcffc, 0xbf1b, 0xaf3a, 0x9f59, 0x8f78, 0x9188, 0x81a9, 0xb1ca,
0xa1eb, 0xd10c, 0xc12d, 0xf14e, 0xe16f, 0x1080, 0x00a1, 0x30c2, 0x20e3, 0x5004, 0x4025, 0x7046, 0x6067,
0x83b9, 0x9398, 0xa3fb, 0xb3da, 0xc33d, 0xd31c, 0xe37f, 0xf35e, 0x02b1, 0x1290, 0x22f3, 0x32d2, 0x4235,
0x5214, 0x6277, 0x7256, 0xb5ea, 0xa5cb, 0x95a8, 0x8589, 0xf56e, 0xe54f, 0xd52c, 0xc50d, 0x34e2, 0x24c3,
0x14a0, 0x0481, 0x7466, 0x6447, 0x5424, 0x4405, 0xa7db, 0xb7fa, 0x8799, 0x97b8, 0xe75f, 0xf77e, 0xc71d,
0xd73c, 0x26d3, 0x36f2, 0x0691, 0x16b0, 0x6657, 0x7676, 0x4615, 0x5634, 0xd94c, 0xc96d, 0xf90e, 0xe92f,
0x99c8, 0x89e9, 0xb98a, 0xa9ab, 0x5844, 0x4865, 0x7806, 0x6827, 0x18c0, 0x08e1, 0x3882, 0x28a3, 0xcb7d,
0xdb5c, 0xeb3f, 0xfb1e, 0x8bf9, 0x9bd8, 0xabbb, 0xbb9a, 0x4a75, 0x5a54, 0x6a37, 0x7a16, 0x0af1, 0x1ad0,
0x2ab3, 0x3a92, 0xfd2e, 0xed0f, 0xdd6c, 0xcd4d, 0xbdaa, 0xad8b, 0x9de8, 0x8dc9, 0x7c26, 0x6c07, 0x5c64,
0x4c45, 0x3ca2, 0x2c83, 0x1ce0, 0x0cc1, 0xef1f, 0xff3e, 0xcf5d, 0xdf7c, 0xaf9b, 0xbfba, 0x8fd9, 0x9ff8,
0x6e17, 0x7e36, 0x4e55, 0x5e74, 0x2e93, 0x3eb2, 0x0ed1, 0x1ef0 };
/*==========================================================================================================
FUNCTION
load_firmware_from_library
DESCRIPTION
gets a pointer to the firmware image and the length of the image
PARAMETERS
const char *pathToLib - path to the firmware image library
uint8_t **ppFirmwareImage - pointer to the pointer to the firmware image
uint16_t *pFirmwareImageLen - pointer to the firmware image length
RETURN VALUE
void
==========================================================================================================*/
static void load_firmware_from_library( const char *pathToLib, uint8_t **ppFirmwareImage,
uint16_t *pFirmwareImageLen )
{
void *pFirmwareLibHandle = NULL;
void *pTempFirmwareImage = NULL;
void *pTempFirmwareImageLen = NULL;
int status = -1;
do
{
if( NULL == pathToLib )
{
if(chip_version == 0x51 || chip_version == 0x50 || chip_version == 0x41 || chip_version == 0x40 )
pathToLib = "/system/vendor/firmware/libpn553_fw.so"; // set the path to pn553 firmware library
else
pathToLib = "/system/vendor/firmware/libpn548ad_fw.so"; // set the default path to pn548ad firmware library
}
if( NULL != pFirmwareLibHandle )
{
status = dlclose( pFirmwareLibHandle ); // if the firmware library handle is not NULL, release the handle
pFirmwareLibHandle = NULL;
dlerror( ); // clear existing errors
if( 0 != status )
{
LOG_ERROR( "%s: dlclose() failed with status = %d \n", __FUNCTION__, status );
break;
}
}
pFirmwareLibHandle = dlopen( pathToLib, RTLD_LAZY ); // get a handle to firmware library
LOG_MESSAGE( "Opening library handle from %s\n", pathToLib );
if( NULL == pFirmwareLibHandle )
{
LOG_ERROR( "%s: dlopen() failed \n", __FUNCTION__ );
break;
}
dlerror( ); // clear existing errors
pTempFirmwareImage = ( void * )dlsym( pFirmwareLibHandle, "gphDnldNfc_DlSeq" ); // get a pointer to the firmware library
if( dlerror( ) || ( NULL == pTempFirmwareImage ) )
{
LOG_ERROR( "%s: dlsym() failed, failed to load gphDnldNfc_DlSeq symbol \n", __FUNCTION__ );
break;
}
*ppFirmwareImage = *( uint8_t ** )pTempFirmwareImage; // the returned pointer is a pointer to an uint8_t array
pTempFirmwareImageLen = ( void * ) dlsym( pFirmwareLibHandle, "gphDnldNfc_DlSeqSz" ); // get a pointer to the firmware library length
if( dlerror( ) || ( NULL == pTempFirmwareImageLen ) )
{
LOG_ERROR( "%s: dlsym() failed, failed to load gphDnldNfc_DlSeqSz symbol \n", __FUNCTION__ );
break;
}
*pFirmwareImageLen = ( uint16_t )( *( ( uint16_t * )pTempFirmwareImageLen ) ); // the returned pointer is a pointer to the length of the image
} while( FALSE );
}
/*==========================================================================================================
FUNCTION
send_packet_packet_to_chip
DESCRIPTION
sends the constructed packets to the NFC chip by calling ProcessCommand() from ftm_nfcnq.c
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void send_packet_packet_to_chip( pfirmware_download_context_t pDownloadContext )
{
int status = -1;
status = ProcessCommand( &pDownloadContext->packetToSend ); // call ProcessCommand() from ftm_nfcnq.c
if( 0 != status )
{
LOG_ERROR( "%s: ProcessCommand() failed with status = %d \n", __FUNCTION__, status );
}
}
/*==========================================================================================================
FUNCTION
calculate_crc16
DESCRIPTION
calculates CRC-16-CCITT of a given buffer with a given length with seed value of 0xffff(Hex)
PARAMETERS
uint8_t *pBuff - buffer for CRC-16-CCITT calculation
uint16_t buffLen - length of buffer for CRC-16-CCITT calculation
RETURN VALUE
uint16_t - calculated CRC-16-CCITT value of buffer
==========================================================================================================*/
static uint16_t calculate_crc16( uint8_t *pBuff, uint16_t buffLen )
{
uint16_t temp = 0;
uint16_t value = 0;
uint16_t crc = 0xffff; // seed value
uint32_t i = 0;
if ( ( NULL == pBuff ) || ( 0 == buffLen ) )
{
LOG_ERROR( "%s: Invalid parameters \n", __FUNCTION__ );
}
else
{
for( i = 0; i < buffLen; i++ )
{
value = 0x00ffU & ( uint16_t )pBuff[ i ];
temp = ( crc >> 8U ) ^ value;
crc = ( crc << 8U ) ^ crcTable[ temp ];
}
}
return crc;
}
/*==========================================================================================================
FUNCTION
insert_crc16
DESCRIPTION
inserts the calculated CRC-16-CCITT value into the end of the buffer
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void insert_crc16( pfirmware_download_context_t pDownloadContext )
{
uint16_t crcValueToWrite = 0;
uint8_t *crcValueInBytes = NULL;
/* get CRC-16-CCITT value of packet and convert it into 2 bytes */
crcValueToWrite = calculate_crc16( &pDownloadContext->packetToSend,
pDownloadContext->headerPlusPayloadLen );
crcValueInBytes = ( uint8_t * )&crcValueToWrite;
/* insert crc value into last 2 bytes of the packet */
if( pDownloadContext->packetToSend.payloadLen < ( FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN + FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN - 1 ))
{
pDownloadContext->packetToSend.payloadBuff[ pDownloadContext->packetToSend.payloadLen ] = crcValueInBytes[ 1 ];
pDownloadContext->packetToSend.payloadBuff[ pDownloadContext->packetToSend.payloadLen + 1 ] = crcValueInBytes[ 0 ];
}
else
{
LOG_ERROR( "%s: Packet to send payloadLen more than maximum payloadBuff size \n", __FUNCTION__ );
}
}
/*==========================================================================================================
FUNCTION
read_response_from_chip
DESCRIPTION
reader thread that constantly checks for responses from NFC chip, checks the integrity of the
response packets by matching the CRC-16-CCITT values and signals the semaphore held by
the call to ProcessCommand()
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void read_response_from_chip( pfirmware_download_context_t pDownloadContext )
{
uint8_t lenRead = 0;
uint8_t *pPacketReceived = NULL;
uint16_t calculatedCrcValue = 0;
uint16_t crcValueFromResponse = 0;
do
{
if( fdNfc < 0 )
{
LOG_ERROR( "%s: Invalid handle \n", __FUNCTION__ );
break;
}
lenRead = read( fdNfc, &pDownloadContext->packetReceived, // get the response packet header
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN );
if( 0 == lenRead )
{
LOG_ERROR( "%s: Error reading response packet header \n", __FUNCTION__ );
break;
}
else
{
pDownloadContext->totalPacketLen = lenRead;
}
lenRead = read( fdNfc, &pDownloadContext->packetReceived.payloadBuff, // get the rest fo the response packet
( pDownloadContext->packetReceived.payloadLen +
FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN ) );
if( 0 == lenRead )
{
LOG_ERROR( "%s: Error reading response packet payload \n", __FUNCTION__ );
break;
}
else
{
pDownloadContext->totalPacketLen += lenRead; // update the total length of the received packet
}
calculatedCrcValue = calculate_crc16( &pDownloadContext->packetReceived, // calculate the CRC-16-CCITT value of the received packet
( pDownloadContext->packetReceived.payloadLen +
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN ) );
/* convert crc value from the response packet to an uint16_t */
if( pDownloadContext->packetReceived.payloadLen < ( FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN + FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN - 1 ))
{
crcValueFromResponse = pDownloadContext->packetReceived.payloadBuff[ pDownloadContext->packetReceived.payloadLen ];
crcValueFromResponse <<= 8;
crcValueFromResponse |= pDownloadContext->packetReceived.payloadBuff[ pDownloadContext->packetReceived.payloadLen + 1 ];
}
else
{
LOG_ERROR( "%s: Packet received payloadLen more than maximum payloadBuff size \n", __FUNCTION__ );
}
if( calculatedCrcValue != crcValueFromResponse ) // compare the CRC-16-CCITT values
{
LOG_ERROR( "%s: CRC-16-CCITT values do not match, discarding packet \n", __FUNCTION__ );
break;
}
else
{
sem_post( &sRspReady ); // signal the semaphore for subsequent packets to be sent
}
} while( FALSE == pDownloadContext->fExitReadThread ); // exit only when the flag is set
}
/*==========================================================================================================
FUNCTION
get_device_firmware_version
DESCRIPTION
sends the get-firmware-version command (0xF1) to the device and outputs the firmware version of
the device
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void get_device_firmware_version( pfirmware_download_context_t pDownloadContext )
{
uint8_t getFirmwareVersionCommand[ ] = { 0x00, 0x04, 0xF1, 0x00, 0x00, 0x00 }; // command to get firmware version on device
uint8_t firmwareMajorVersion = 0;
uint8_t firmwareMinorVersion = 0;
pDownloadContext->headerPlusPayloadLen =
sizeof( getFirmwareVersionCommand ) / sizeof( getFirmwareVersionCommand[ 0 ] );
memcpy( &pDownloadContext->packetToSend, &getFirmwareVersionCommand, // construct the command packet
( pDownloadContext->headerPlusPayloadLen ) );
insert_crc16( pDownloadContext ); // insert the CRC-16-CCITT value
send_packet_packet_to_chip( pDownloadContext ); // send the command packet to NFC chip
/* continues from here once the reader thread reads the response and flags the semaphore,
the last 2 bytes of the get version response payload contains the firmware version currently on the device */
firmwareMajorVersion = pDownloadContext->packetReceived.payloadBuff[ pDownloadContext->packetReceived.payloadLen - 1 ];
firmwareMinorVersion = pDownloadContext->packetReceived.payloadBuff[ pDownloadContext->packetReceived.payloadLen - 2 ];
if(chip_version == 0x51 || chip_version == 0x50 || chip_version == 0x41 || chip_version == 0x40 )
LOG_INFORMATION( "Firmware version: 11.%02X.%02X\n", firmwareMajorVersion, firmwareMinorVersion );
else
LOG_INFORMATION( "Firmware version: 10.%02X.%02X\n", firmwareMajorVersion, firmwareMinorVersion );
}
/*==========================================================================================================
FUNCTION
build_first_packet
DESCRIPTION
constructs the first packet to be sent to the NFC chip
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void build_first_packet( pfirmware_download_context_t pDownloadContext )
{
memset( pDownloadContext->packetToSend.payloadBuff, 0, // initialise the payload buffer to zero
FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN );
memcpy( &pDownloadContext->packetToSend, // copy the first chunk from the firmware library to the packet
pDownloadContext->pFirmwareImage,
pDownloadContext->headerPlusPayloadLen );
insert_crc16( pDownloadContext ); // insert the CRC-16-CCITT value
}
/*==========================================================================================================
FUNCTION
build_next_packet
DESCRIPTION
constructs subsequent packets required to be sent to the NFC chip
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void build_next_packet( pfirmware_download_context_t pDownloadContext )
{
/* for chunks from library that are larger than 256 bytes, the packets have to be fragmented */
if( pDownloadContext->bytesLeftToSend > FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN )
{
pDownloadContext->headerPlusPayloadLen = FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN + // length of header plus the payload for CRC-16-CCITT calculation
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN;
pDownloadContext->totalPacketLen = FIRMWARE_DOWNLOAD_MAX_PACKET_LEN; // length of the entire packet to be sent
pDownloadContext->packetToSend.fFragmentedPacket = FIRMWARE_DOWNLOAD_PACKET_FRAG_FLAG_SET; // set the fragment flag as the first byte
pDownloadContext->packetToSend.payloadLen = FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN; // insert the payload length in the second byte
memcpy( ( &pDownloadContext->packetToSend.payloadBuff ), // copy payload from firmware library
&pDownloadContext->pFirmwareImage[ pDownloadContext->readIndexFromLib ],
FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN );
pDownloadContext->readIndexFromLib += FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN; // update the buffer index used to read from firmware library
pDownloadContext->bytesLeftToSend -= FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN; // update the number of bytes left to send from the chunk
}
/* for chunks from library that are smaller than 256 bytes, no fragmentation needed */
else
{
pDownloadContext->headerPlusPayloadLen = pDownloadContext->bytesLeftToSend + // length of header plus the payload for CRC-16-CCITT calculation
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN;
pDownloadContext->totalPacketLen = pDownloadContext->bytesLeftToSend + // length of the entire packet to be sent
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN +
FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN;
pDownloadContext->packetToSend.fFragmentedPacket = FIRMWARE_DOWNLOAD_PACKET_FRAG_FLAG_NONE; // set the fragment flag to none as the first byte
pDownloadContext->packetToSend.payloadLen = pDownloadContext->bytesLeftToSend; // insert the payload length in the second byte
memcpy( ( &pDownloadContext->packetToSend.payloadBuff ), // copy payload from firmware library
&pDownloadContext->pFirmwareImage[ pDownloadContext->readIndexFromLib ],
pDownloadContext->bytesLeftToSend );
pDownloadContext->readIndexFromLib += pDownloadContext->bytesLeftToSend; // update the buffer index used to read from firmware library
pDownloadContext->bytesLeftToSend = 0; // most likely the last fragment from the chunk
}
insert_crc16( pDownloadContext );
}
/*==========================================================================================================
FUNCTION
process_packets_to_send
DESCRIPTION
determines if the incoming packet is the first one or any subsequent ones and process them
accordingly
PARAMETERS
pfirmware_download_context_t pDownloadContext - pointer to structure containing all the
information required
RETURN VALUE
void
==========================================================================================================*/
static void process_packets_to_send( pfirmware_download_context_t pDownloadContext )
{
uint8_t firstChunkLenFromLib = 0;
uint16_t nextChunkLenFromLib = 0;
uint16_t buffIndex = pDownloadContext->readIndexFromLib;
if( TRUE == pDownloadContext->fFirstPacket )
{
pDownloadContext->fFirstPacket = FALSE; // indicates that the first packet has been processed
firstChunkLenFromLib = pDownloadContext->pFirmwareImage[ 1 ] + // length of the first chunk read from firmware library
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN;
pDownloadContext->totalPacketLen = firstChunkLenFromLib + // length of the entire packet to send
FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN;
pDownloadContext->readIndexFromLib += firstChunkLenFromLib; // update the buffer index used to read from firmware library
pDownloadContext->headerPlusPayloadLen = firstChunkLenFromLib; // length of header plus the payload for CRC-16-CCITT calculation
build_first_packet( pDownloadContext ); // build the first packet
send_packet_packet_to_chip( pDownloadContext ); // send the packet to the NFC chip
}
else if( FALSE == pDownloadContext->fFirstPacket )
{
nextChunkLenFromLib = pDownloadContext->pFirmwareImage[ buffIndex ]; // length of next chunk read from the firmware library
/* length of next chunk is stored in 2 bytes in the firmware library */
nextChunkLenFromLib <<= 8;
nextChunkLenFromLib |= pDownloadContext->pFirmwareImage[ buffIndex + 1 ];
buffIndex += 2; // add 2 bytes to the buffer index after length of next chunk is read
pDownloadContext->readIndexFromLib = buffIndex; // update the buffer index used to read from firmware library
pDownloadContext->bytesLeftToSend = nextChunkLenFromLib; // number of bytes left on the chunk to be sent to the chip
while( pDownloadContext->bytesLeftToSend > 0 ) // constructs and sends packets as long as there are bytes left in the chunk
{
build_next_packet( pDownloadContext );
send_packet_packet_to_chip( pDownloadContext );
}
}
else
{
LOG_ERROR( "%s: Should not reach this point \n", __FUNCTION__ );
}
}
/*==========================================================================================================
FUNCTION
ftm_nfc_dispatch_nq_fwdl
DESCRIPTION
called by main() in ftm_main.c to start the firmware download routine
PARAMETERS
none
RETURN VALUE
void
==========================================================================================================*/
void ftm_nfc_dispatch_nq_fwdl( void )
{
int status = 0;
char *pathToLib = NULL;
uint8_t *pFirmwareImage = NULL;
uint16_t firmwareImageLen = 0;
uint8_t *pNextChunkFromLib = NULL;
uint16_t nextChunkLenFromLib = 0;
uint16_t totalBytesReadFromLib = 0;
uint16_t readIndexFromLib = 0;
union nqx_uinfo nqx_info;
pthread_t readerThread;
firmware_download_context_t downloadContext = { 0 };
pfirmware_download_context_t pDownloadContext = &downloadContext;
pDownloadContext->fFirstPacket = TRUE;
do
{
if( !fdNfc )
{
status = ftm_nq_nfc_open( ); // get a handle to the kernel driver
if( status < 0 )
{
LOG_ERROR( "\n%s: ftm_nq_nfc_open() failed with status = %d \n", __FUNCTION__, status );
break;
}
status = ftm_nfc_hw_reset( ); // reset NFC hardware
if( status < 0 )
{
LOG_ERROR( "%s: ftm_nq_nfc_reset() failed with status = %d \n", __FUNCTION__, status );
break;
}
nqx_info.i = ioctl( fdNfc, NFCC_GET_INFO, 0 );
if( nqx_info.i < 0 )
{
LOG_ERROR( "%s: nqnfcinfo not enabled, info = %d \n", __FUNCTION__, nqx_info.i );
}
chip_version = nqx_info.info.chip_type;
LOG_INFORMATION( "\n NQ Chip ID : %x\n", chip_version);
}
status = pthread_create( &readerThread, NULL, // create a reader thread
&read_response_from_chip, pDownloadContext );
if( 0 != status )
{
LOG_ERROR( "%s: pthread_create() failed with status = %d \n", __FUNCTION__, status );
break;
}
load_firmware_from_library( pathToLib, &pFirmwareImage, &firmwareImageLen ); // get a pointer to firmware library image and get its length
if( ( NULL == pFirmwareImage ) || ( 0 == firmwareImageLen ) )
{
LOG_ERROR( "%s: Firmware library image extraction failed\n", __FUNCTION__ );
break;
}
LOG_MESSAGE( "Firmware major version number: %02X\n", pFirmwareImage[ 5 ] );
LOG_MESSAGE( "Firmware minor version number: %02X\n", pFirmwareImage[ 4 ] );
LOG_MESSAGE( "Firmware library image length: %d\n", firmwareImageLen );
LOG_MESSAGE( "Firmware library image pointer: %X\n", ( uintptr_t )pFirmwareImage );
pDownloadContext->pFirmwareImage = pFirmwareImage;
pDownloadContext->firmwareImageLen = firmwareImageLen;
status = ioctl( fdNfc, NFC_SET_PWR, FIRMWARE_MODE ); // set NFCC to firmware download mode
if( 0 != status )
{
LOG_ERROR( "%s: Failed to set firmware pin high.\n", __FUNCTION__ );
break;
}
LOG_INFORMATION( "\nBefore firmware update...\n" );
get_device_firmware_version( pDownloadContext ); // get device version before loading firmware
LOG_INFORMATION( "\nSending firmware packets... Please wait\n" );
while( pDownloadContext->readIndexFromLib < pDownloadContext->firmwareImageLen )
{
process_packets_to_send( pDownloadContext ); // build and send download packets with payload from the firmware library image
}
LOG_INFORMATION( "All packets sent!\n\n" );
pDownloadContext->fExitReadThread = TRUE; // set flag to indicate that reader thread is safe to exit
LOG_INFORMATION( "After firmware update...\n" );
get_device_firmware_version( pDownloadContext ); // get device version number after loading firmware
LOG_MESSAGE( "Waiting for reader thread to terminate...\n" );
pthread_join( readerThread, NULL ); // wait for reader thread to terminate
LOG_MESSAGE( "Reader thread terminated!\n" );
LOG_MESSAGE( "Resetting NFCC...\n" );
status = ftm_nfc_hw_reset( ); // reset the NFC hardware which resets the firmware pin as well
if( status < 0 )
{
LOG_ERROR( "%s: ftm_nfc_hw_reset() failed with status = %d \n", __FUNCTION__, status );
break;
}
status = ftm_nq_nfc_close( ); // release the handle to the kernel driver
if( 0 != status )
{
LOG_ERROR( "%s: ftm_nq_nfc_close() failed with status = %d \n", __FUNCTION__, status );
}
LOG_INFORMATION( "All done!\n\n" );
} while( FALSE );
}

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/*
* Copyright (c) 2016 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* Not a Contribution.
* Apache license notifications and license are retained
* for attribution purposes only.
*/
/*
* Copyright (C) 2015 NXP Semiconductors
* The original Work has been changed by NXP Semiconductors.
*
* Copyright (C) 2010 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
/*=========================================================================
FTM NFC NQ Firmware Download Header File
Description
This file contains the declarations of the functions and various
definitions used to download firmware onto the NQ Chip.
===========================================================================*/
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <dlfcn.h>
#include <semaphore.h>
#include <pthread.h>
#define FALSE ( 0 )
#define TRUE ( !FALSE )
#define FIRMWARE_DOWNLOAD_MAX_PACKET_LEN ( 0x100U ) // maximum length for a download packet
#define FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN ( 0x02U ) // length of the header
#define FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN ( 0x02U ) // length of CRC-16-CCITT value
#define FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN FIRMWARE_DOWNLOAD_MAX_PACKET_LEN - \
FIRMWARE_DOWNLOAD_PACKET_HEADER_LEN - \
FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN
/* Values for the first byte of each packet, indicates if the packet is fragmented */
#define FIRMWARE_DOWNLOAD_PACKET_FRAG_FLAG_NONE ( 0x00U ) // not fragmented
#define FIRMWARE_DOWNLOAD_PACKET_FRAG_FLAG_SET ( 0x04U ) // fragmented packet, next packet is a part of this one
extern sem_t sRspReady; // semaphore used by reader thread
extern int fdNfc; // a handle to the kernel driver
typedef uint8_t bool_t;
/* structure of the packet to be sent or received */
typedef struct firmware_download_packet
{
uint8_t fFragmentedPacket; // flag to indicate if the packet is fragmented
uint8_t payloadLen; // length of payload
uint8_t payloadBuff[ FIRMWARE_DOWNLOAD_PACKET_MAX_PAYLOAD_LEN +
FIRMWARE_DOWNLOAD_PACKET_CRC16_LEN ]; // buffer containing the payload and CRC-16-CCITT value
} firmware_download_packet_t, *pfirmware_download_packet_t;
/* structure that contains all the other information about the packets */
typedef struct firmware_download_context
{
const uint8_t *pFirmwareImage; // pointer to the firmware image library
uint16_t firmwareImageLen; // length of the firmware image
uint8_t headerPlusPayloadLen; // header and payload length of a packet for CRC calculation
uint16_t readIndexFromLib; // index used to read from the firmware library
uint16_t bytesLeftToSend; // number of bytes left to send when the chunk read is fragmented
uint16_t totalPacketLen; // total length of packet to be sent or received
bool_t fFirstPacket; // flag to indicate if it is the first packet
bool_t fExitReadThread; // flag to indicate if reader thread is safe to exit
firmware_download_packet_t packetToSend; // contains information about packet to be sent
firmware_download_packet_t packetReceived; // contains information about packet from response received
} firmware_download_context_t, *pfirmware_download_context_t;
/**
Firmware download packet format
-----------------------------------------------------------------------------------------------------
| Header | Payload | CRC-16-CCITT value |
-----------------------------------------------------------------------------------------------------
| Fragment flag | Payload length | Command/Response | Data | CRC-16-CCITT value |
-----------------------------------------------------------------------------------------------------
| 1 byte | 1 byte | 1 byte | n bytes | 2 bytes |
-----------------------------------------------------------------------------------------------------
Firmware library image format
--------------------------------------------------------------------------------- ----------------------------------
| 0x00 | First chunk length | First chunk | Next chunk length | Next chunk | ... | Last chunk length | Last chunk |
--------------------------------------------------------------------------------- ----------------------------------
| 1 byte | 1 byte | n bytes | 2 bytes | n bytes | ... | 2 bytes | n bytes |
--------------------------------------------------------------------------------- ----------------------------------
*/

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/*
* Copyright (c) 2017 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
#include <libgen.h>
#include "ftm_nfcnq.h"
#include "ftm_nfcnq_test.h"
/* Global variables */
pthread_t clientThread;
PNCI_MESSAGE pNCIMessage;
char *progname;
/*==============================================================================
FUNCTION
eseSpiTest
DESCRIPTION
Send APDU for eSE SPI HLOS test
PARAMETERS
int argc - argument count
char **argv - argument vector
RETURN VALUE
void
=============================================================================*/
void eseSpiTest(int argc, char **argv )
{
int ret = 0;
int test_mode = 0;
unsigned char i = 0;
int fp = 0;
int choice = 0;
unsigned char send_APDU[] = {0x5A,0x00,0x05,0x00,0xA4,0x04,0x00,0x00,0xA5};
int size_APDU = 0;
unsigned char recv_response[259] = {0};
progname = basename(argv[2]);
test_mode = getopt(argc, argv, "01");
size_APDU = sizeof(send_APDU);
LOG_INFORMATION("\n### eSE SPI test ###\n");
if(test_mode == '0')
{
choice = 0;
LOG_INFORMATION("\nInterrupt Mode test\n");
}
else
{
choice = 1;
LOG_INFORMATION("\nPoll Mode test(default)\n");
}
do
{
//open module
if ((ret = (fp = open("/dev/ese", O_RDWR))) < 0)
{
LOG_INFORMATION("eSE open error retcode = %d, errno = %d\n", ret, errno);
LOG_INFORMATION("\n... eSE SPI Test requires modified boot and TZ image ...");
break;
}
LOG_INFORMATION("eSE open : Ret = %2d\n", ret);
//enable the logs
ioctl(fp, ESE_SET_DBG, 1);
//hardware reset
ioctl(fp, ESE_SET_PWR, 1);
ioctl(fp, ESE_SET_MODE, choice);
//write one APDU
ret = write(fp, send_APDU, sizeof(send_APDU));
if (ret < 0)
{
LOG_INFORMATION("ese write error retcode = %d, errno = %d\n", ret, errno);
break;
}
LOG_INFORMATION("ese Write : Ret = %.2X \n", ret);
LOG_INFORMATION("APDU sent to eSE: ");
for (i=0; i<size_APDU; i++)
{
LOG_INFORMATION("%.2X ", send_APDU[i]);
}
sleep(1);
if ((ret = (read(fp, &recv_response[0], READ_SAMPLE_SIZE)), 0) < 0)
{
LOG_INFORMATION("\neSE read error retcode = %d, errno = %d", ret, errno);
}
else
{
LOG_INFORMATION("\nResponse from eSE: ");
for (i=0;i<(recv_response[2]+1);i++)
{
LOG_INFORMATION("%.2X ", recv_response[i]);
}
LOG_INFORMATION("\n");
}
} while(0);
close(fp);
}
/*==============================================================================
FUNCTION
eseDwpTest
DESCRIPTION
Send NCI commands to NFCC for eSE DWP detection
PARAMETERS
RETURN VALUE
void
=============================================================================*/
void eseDwpTest()
{
int cmds;
cmds = sizeof(NQ330_ESE_DWP) / sizeof(NQ330_ESE_DWP[0]);
LOG_INFORMATION( "\n### ese DWP Test ###\n" );
if(whatNQChip == NQ_220 || whatNQChip == NQ_330)
sendcmds(NQ330_ESE_DWP, cmds);
else
LOG_INFORMATION( "\nNQ Chipset in use doesn't support eSE\n" );
}
/*==============================================================================
FUNCTION
printTecnologyDetails
DESCRIPTION
Print the technology supported and protocols details
PARAMETERS
char technology - technology supported identifier
char protocol - protocol identifier
RETURN VALUE
void
=============================================================================*/
void printTecnologyDetails(char technology, char protocol)
{
switch (protocol)
{
case NFC_PROTOCOL_ISO_DEP:
LOG_INFORMATION( "ISO-DEP Protocol");
break;
case NFC_PROTOCOL_NFC_DEP:
LOG_INFORMATION( "NFC-DEP Protocol");
break;
case NFC_PROTOCOL_T1T:
LOG_INFORMATION( "T1T Protocol");
break;
case NFC_PROTOCOL_T2T:
LOG_INFORMATION( "T2T Protocol");
break;
case NFC_PROTOCOL_T3T:
LOG_INFORMATION( "T3T Protocol");
break;
case NFC_PROTOCOL_UNKNOWN:
LOG_INFORMATION( "unknown Protocol");
break;
default:
break;
}
switch (technology)
{
case NFC_NFCA_Poll:
LOG_INFORMATION("\nNFC A POLL MODE TECHNOLOGY\n");
break;
case NFC_NFCB_Poll:
LOG_INFORMATION("\nNFC B POLL MODE TECHNOLOGY\n");
break;
case NFC_NFCF_Poll:
LOG_INFORMATION("\nNFC F POLL MODE TECHNOLOGY\n");
break;
case NFC_NFCA_Listen:
LOG_INFORMATION("\nNFC A LISTEN MODE TECHNOLOGY\n");
break;
case NFC_NFCB_Listen:
LOG_INFORMATION("\nNFC B LISTEN MODE TECHNOLOGY\n");
break;
case NFC_NFCF_Listen:
LOG_INFORMATION("\nNFC F LISTEN MODE TECHNOLOGY\n");
break;
case NFC_NFCISO15693_Poll:
LOG_INFORMATION("\nNFC ISO15693 POLL MODE TECHNOLOGY\n");
break;
default:
LOG_INFORMATION("\nother TECHNOLOGY\n");
break;
}
}
/*==============================================================================
FUNCTION
sendcmds
DESCRIPTION
Send sequence of commands to NFCC
PARAMETERS
uint8_t buffer[] - Command buffer array
int no_of_cmds - Number of commands to be sent
RETURN VALUE
void
=============================================================================*/
void sendcmds(uint8_t buffer[][MAX_CMD_LEN], int no_of_cmds)
{
int rows=0,payloadlen=0;
int ret = 0;
ftm_nfc_pkt_type *nfc_pkt = (ftm_nfc_pkt_type *)malloc(no_of_cmds*255);
LOG_INFORMATION("\nTotal cmds to be sent = %d\n",no_of_cmds);
LOG_INFORMATION("Wait for Commands to be sent... \n\n");
for(rows = 0; rows < no_of_cmds; rows++)
{
#ifdef NFC_FTM_DEBUG
LOG_INFORMATION ("Number of cmds sent = %d \n",rows+1);
#endif
payloadlen = 0;
payloadlen = 3 + buffer[rows][2];
memset(nfc_pkt->nci_data, -1, MAX_CMD_LEN);
memcpy(nfc_pkt->nci_data, &buffer[rows], payloadlen);
ret = ProcessCommand( nfc_pkt->nci_data );
if( ret == -1 ) // wait finished, not signalled?
{
LOG_ERROR( "Waited for NCI NTF/DATA timeout\n" );
}
}
}
/*==============================================================================
FUNCTION
usage
DESCRIPTION
Print usage information for test
PARAMETERS
RETURN VALUE
void
=============================================================================*/
void usage()
{
LOG_INFORMATION("\nUsage:");
LOG_INFORMATION(" %s [-n] [-e] [-d] [h] \n", progname);
LOG_INFORMATION(" %s -n ..for NFC test only\n", progname);
LOG_INFORMATION(" %s -e ..for eSE SPI test only\n \t-0 ..Interrupt Mode\n \t-1 ..Poll Mode\n", progname);
LOG_INFORMATION(" %s -d ..for eSE DWP test only\n", progname);
LOG_INFORMATION(" %s -h HELP\n", progname);
LOG_INFORMATION(" %s default NFC test only\n", progname);
}
/*==============================================================================
FUNCTION
nfc_ese_pwr
DESCRIPTION
Set ESE power using NFC driver
PARAMETERS
RETURN VALUE
void
=============================================================================*/
void nfc_ese_pwr()
{
int ret;
ret = ioctl( fdNfc, NFC_ESE_SET_PWR, POWER_ON ); // turn the chip on
if( ret != 0 )
{
LOG_INFORMATION("Can't find ESE GPIO in NFC driver: ");
LOG_INFORMATION("ret=%d\n",ret);
}
}
/*==============================================================================
FUNCTION
ftm_nfc_dispatch_nq_test
DESCRIPTION
called by main() in ftm_main.c to start the nfc test routine
PARAMETERS
int argc - argument count
char **argv - argument vector
RETURN VALUE
void
=============================================================================*/
void ftm_nfc_dispatch_nq_test( int argc, char **argv )
{
int cmds = 0;
unsigned int chip_version = 0x00;
unsigned int major_version = 0x00;
unsigned int minor_version = 0x00;
unsigned int rom_version = 0x00;
char firmware_version[10];
struct timespec time_sec;
int type_of_test = 0;
int default_test = 0;
int status = 0;
union nqx_uinfo nqx_info;
pthread_t readerThread;
do
{
if( !fdNfc )
{
status = ftm_nq_nfc_open( ); // get a handle to the kernel driver
if( status < 0 )
{
LOG_ERROR( "\n%s: ftm_nq_nfc_open() failed with status = %d \n", __FUNCTION__, status );
break;
}
status = ftm_nfc_hw_reset( ); // reset NFC hardware
if( status < 0 )
{
LOG_ERROR( "%s: ftm_nq_nfc_reset() failed with status = %d \n", __FUNCTION__, status );
break;
}
nqx_info.i = ioctl( fdNfc, NFCC_GET_INFO, 0 );
if( nqx_info.i < 0 )
{
LOG_ERROR( "%s: nqnfcinfo not enabled, info = %d \n", __FUNCTION__, nqx_info.i );
}
chip_version = nqx_info.info.chip_type;
rom_version = nqx_info.info.rom_version;
major_version = nqx_info.info.fw_major;
minor_version = nqx_info.info.fw_minor;
LOG_INFORMATION( "\n NQ Chip ID : %x\n", chip_version);
snprintf(firmware_version, 10, "%02x.%02x.%02x", rom_version, major_version, minor_version);
LOG_INFORMATION(" Firmware version : %s\n\n", firmware_version);
if(sem_init(&sRspReady, 0, 0) != 0)
{
LOG_ERROR("NFC FTM :semaphore_halcmd_complete creation failed \n");
break;
}
if(sem_init(&sRfNtf, 0, 0) != 0)
{
LOG_ERROR("NFC FTM :semaphore_halcmd_complete creation failed \n");
break;
}
pNCIMessage = ( PNCI_MESSAGE ) nciReplyMessage;
status = pthread_create( &clientThread, NULL, &nfc_read_thread, NULL ); // Start the Read Thread
if( status != 0 ) // successful?
{
LOG_ERROR("nqnfc %s: pthread_create( nfc_read_thread ) failed with ret = %d \n", __func__, status );
break;
}
status = ftm_nfc_nq_vs_nxp( );
if( status < 0 ) // Not an NQ Chip?
{
LOG_ERROR("ERROR NOT A KNOWN NQ Chip \n" );
}
}
progname = basename(argv[1]);
type_of_test = getopt(argc, argv, "nedhf");
switch (type_of_test) {
case 'n':
LOG_INFORMATION("NFC test only\n");
break;
case 'e':
LOG_INFORMATION("eSE SPI test only\n");
nfc_ese_pwr();
ese_spi_test = 1;
eseSpiTest(argc, argv);
break;
case 'd':
LOG_INFORMATION("eSE DWP test only\n");
ese_dwp_test = 1;
eseDwpTest();
break;
case 'h':
usage();
break;
default:
usage();
default_test = 1;
LOG_INFORMATION("\nDefault NFC test only\n");
}
if(ese_dwp_test || ese_spi_test)
break;
if(type_of_test == 'n' || default_test)
{
switch(whatNQChip)
{
case NQ_210:
case NQ_220:
cmds = sizeof(NQ220_cmds) / sizeof(NQ220_cmds[0]);
sendcmds(NQ220_cmds, cmds);
break;
case NQ_310:
case NQ_330:
cmds = sizeof(NQ330_cmds) / sizeof(NQ330_cmds[0]);
sendcmds(NQ330_cmds, cmds);
break;
default:
LOG_INFORMATION( "Chip not supported, taking NQ330 as default\n ");
cmds = sizeof(NQ330_cmds) / sizeof(NQ330_cmds[0]);
sendcmds(NQ330_cmds, cmds);
break;
}
LOG_INFORMATION("\n<<>> Waiting for TAG detect or 20sec timeout <<>> ...\n");
status = clock_gettime( CLOCK_REALTIME, &time_sec );
time_sec.tv_sec += NFC_NTF_TIMEOUT;
status = sem_timedwait( &sRfNtf, &time_sec ); //start waiting
if (status <0) {
LOG_INFORMATION("\n No NFC Tag detected, continue ...\n");
}
}
status = ftm_nq_nfc_close( ); // release the handle to the kernel driver
if( 0 != status )
{
LOG_ERROR( "%s: ftm_nq_nfc_close() failed with status = %d \n", __FUNCTION__, status );
}
} while( FALSE );
}

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/*
* Copyright (c) 2017 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* Not a Contribution.
* Apache license notifications and license are retained
* for attribution purposes only.
*
* Copyright (C) 2015 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#define ESE_MAGIC 0xEA
#define ESE_SET_PWR _IOW(ESE_MAGIC, 0x01, unsigned int)
#define ESE_SET_DBG _IOW(ESE_MAGIC, 0x02, unsigned int)
#define ESE_SET_MODE _IOW(ESE_MAGIC, 0x03, unsigned int)
#define NFC_ESE_SET_PWR _IOW(0xE9, 0x02, unsigned int)
#define NFC_ESE_GET_PWR _IOR(0xE9, 0x03, unsigned int)
#define NFC_NTF_TIMEOUT 20
/* Supported Protocols */
#define NFC_PROTOCOL_UNKNOWN 0x00 /* Unknown */
#define NFC_PROTOCOL_T1T 0x01 /* Type1Tag - NFC-A */
#define NFC_PROTOCOL_T2T 0x02 /* Type2Tag - NFC-A */
#define NFC_PROTOCOL_T3T 0x03 /* Type3Tag - NFC-F */
#define NFC_PROTOCOL_ISO_DEP 0x04 /* Type 4A,4B - NFC-A or NFC-B */
#define NFC_PROTOCOL_NFC_DEP 0x05 /* NFCDEP/LLCP - NFC-A or NFC-F */
#define MAX_CMD_LEN 255
#define READ_SAMPLE_SIZE 258
extern int fdNfc; // a handle to the kernel driver
extern uint8_t nciReplyMessage[ 255 ];
extern NQ_CHIP_TYPE whatNQChip;
extern sem_t sRspReady;
extern int ftm_nfc_nq_vs_nxp( void );
int ese_dwp_test = 0;
int ese_spi_test = 0;
void sendcmds(uint8_t buffer[][255], int no_of_cmds);
void printTecnologyDetails(char technology, char protocol);
sem_t sRfNtf;
struct ese_spi_platform_data
{
unsigned int use_pwr_req;
unsigned int pwr_req;
unsigned int ese_intr;
};
/*
* Enum definition contains RF technology modes supported.
* This information is a part of RF_DISCOVER_NTF or RF_INTF_ACTIVATED_NTF.
*/
typedef enum
{
NFC_NFCA_Poll = 0x00, /* Nfc A Technology in Poll Mode */
NFC_NFCB_Poll = 0x01, /* Nfc B Technology in Poll Mode */
NFC_NFCF_Poll = 0x02, /* Nfc F Technology in Poll Mode */
NFC_NFCA_Active_Poll = 0x03, /* Nfc A Technology in Active Poll Mode */
NFC_NFCF_Active_Poll = 0x05, /* Nfc F Technology in Active Poll Mode */
NFC_NFCISO15693_Poll = 0x06, /* Nfc ISO15693 Technology in Poll Mode */
NFC_NxpProp_NFCHID_Poll = 0x70, /* Nfc Hid Technology in Poll Mode */
NFC_NxpProp_NFCEPFGEN2_Poll = 0x71, /* Nfc EpcGen2 Technology in Poll Mode */
NFC_NxpProp_NFCKOVIO_Poll = 0x72, /* Nfc Kovio Technology in Poll Mode */
NFC_NFCA_Listen = 0x80, /* Nfc A Technology in Listen Mode */
NFC_NFCB_Listen = 0x81, /* Nfc B Technology in Listen Mode */
NFC_NFCF_Listen = 0x82, /* Nfc F Technology in Listen Mode */
NFC_NFCA_Active_Listen = 0x83, /* Nfc A Technology in Active Listen Mode */
NFC_NFCF_Active_Listen = 0x85, /* Nfc F Technology in Active Listen Mode */
NFC_NFCISO15693_Active_Listen = 0x86 /* Nfc ISO15693 Technology in Listen Mode */
} NFC_RfTechMode_t;
uint8_t NQ330_cmds[][255] =
{
{ 0x20,0x00,0x01,0x00 },
{ 0x20,0x01,0x00},
{ 0x2F,0x02,0x00 },
{ 0x20,0x03,0x03,0x01,0xA0,0x0F },
{ 0x20,0x03,0x03,0x01,0xA0,0xFC },
{ 0x20,0x03,0x03,0x01,0xA0,0xF2 },
{ 0x20,0x03,0x03,0x01,0xA0,0xD7 },
{ 0x20,0x03,0x07,0x03,0xA0,0x02,0xA0,0x03,0xA0,0x04 },
{ 0x20,0x02,0x09,0x02,0xA0,0x03,0x01,0x01,0xA0,0x04,0x01,0x06 },
{ 0x20,0x02,0x0F,0x01,0xA0,0x0E,0x0B,0x11,0x01,0xC2,0xB2,0x00,0xB2,0x1E,0x1F,0x00,0xD0,0x0C },
{ 0x20,0x02,0x05,0x01,0xA0,0xF2,0x01,0x01 },
{ 0x20,0x03,0x03,0x01,0xA0,0xEC },
{ 0x20,0x03,0x03,0x01,0xA0,0xD4 },
{ 0x20,0x03,0x03,0x01,0xA0,0x14 },
{ 0x20,0x02,0x2E,0x0E,0x28,0x01,0x00,0x21,0x01,0x00,0x30,0x01,0x08,0x31,0x01,0x03,0x32,0x01,0x60,0x38,0x01,0x01,0x33,0x04,0x01,0x02,0x03,0x04,0x54,0x01,0x06,0x50,0x01,0x02,0x5B,0x01,0x00,0x80,0x01,0x01,0x81,0x01,0x01,0x82,0x01,0x0E,0x18,0x01,0x01 },
{ 0x20,0x02,0x05,0x01,0xA0,0x62,0x01,0x01 },
{ 0x20,0x02,0x06,0x01,0xA0,0xF3,0x02,0x10,0x27 },
{ 0x20,0x03,0x03,0x01,0xA0,0x85 },
{ 0x21,0x01,0x07,0x00,0x01,0x01,0x03,0x00,0x01,0x05 },
{ 0x20,0x02,0x05,0x01,0xA0,0xF1,0x01,0x00 },
{ 0x20,0x03,0x03,0x01,0xA0,0x0F },
{ 0x20,0x03,0x03,0x01,0xA0,0xEB },
{ 0x20,0x00,0x01,0x00 },
{ 0x20,0x01,0x00},
{ 0x20,0x03,0x02,0x01,0x00 },
{ 0x20,0x03,0x02,0x01,0x29 },
{ 0x20,0x03,0x02,0x01,0x61 },
{ 0x20,0x03,0x02,0x01,0x60 },
{ 0x20,0x02,0x0F,0x01,0xA0,0x0E,0x0B,0x11,0x01,0xC2,0xB2,0x00,0xB2,0x1E,0x1F,0x00,0xD0,0x0C },
{ 0x21,0x00,0x0D,0x04,0x04,0x03,0x02,0x05,0x03,0x03,0x03,0x02,0x01,0x80,0x01,0x80 },
{ 0x20,0x03,0x07,0x03,0xA0,0xEC,0xA0,0xED,0xA0,0xD4 },
{ 0x20,0x03,0x03,0x01,0xA0,0xEB },
{ 0x20,0x03,0x03,0x01,0xA0,0xF0 },
{ 0x22,0x01,0x02,0xC0,0x01 },
{ 0x22,0x03,0x02,0xC0,0x00 },
{ 0x20,0x03,0x03,0x01,0xA0,0x14 },
{ 0x20,0x03,0x03,0x01,0xA0,0xEB },
{ 0x20,0x03,0x03,0x01,0xA0,0x07 },
{ 0x20,0x03,0x02,0x01,0x52 },
{ 0x2F,0x15,0x01,0x02 },
{ 0x21,0x03,0x07,0x03,0x80,0x01,0x81,0x01,0x82,0x01 },
{ 0x21,0x06,0x01,0x00 },
{ 0x2F,0x15,0x01,0x00 },
{ 0x20,0x02,0x07,0x02,0x32,0x01,0x60,0x38,0x01,0x01 },
{ 0x21,0x01,0x1B,0x00,0x05,0x01,0x03,0x00,0x01,0x03,0x01,0x03,0x00,0x41,0x04,0x01,0x03,0x00,0x41,0xA0,0x01,0x03,0x00,0x01,0x05,0x00,0x03,0xC0,0xC3,0x02 },
{ 0x20,0x02,0x07,0x02,0x32,0x01,0x60,0x38,0x01,0x01},
{ 0x21,0x03,0x19,0x0C,0x00,0x01,0x01,0x01,0x02,0x01,0x03,0x01,0x05,0x01,0x80,0x01,0x81,0x01,0x82,0x01,0x83,0x01,0x85,0x01,0x06,0x01,0x70,0x01}
};
uint8_t NQ330_ESE_DWP[][255] =
{
{ 0x20,0x00,0x01,0x00 },
{ 0x20,0x01,0x00},
{ 0x20,0x02,0x05,0x01,0xA0,0xF2,0x01,0x01 },
{ 0x22,0x00,0x01,0x01 },
{ 0x22,0x01,0x2,0x01,0x01 },
{ 0x20,0x04,0x06,0x03,0x01,0x01,0x02,0x01,0x01 },
{ 0x03,0x00,0x03,0x81,0x02,0x01 },
{ 0x03,0x00,0x03,0x81,0x02,0x04 },
{ 0x03,0x00,0x03,0x81,0x02,0x07 },
{ 0x21,0x01,0x1B,0x00,0x05,0x01,0x03,0x00,0x01,0x03,0x01,0x03,0x00,0x41,0x04,0x01,0x03,0x00,0x41,0xA0,0x01,0x03,0x00,0x01,0x05,0x00,0x03,0xC0,0xC3,0x02 },
{ 0x21,0x03,0x19,0x0C,0x00,0x01,0x01,0x01,0x02,0x01,0x03,0x01,0x05,0x01,0x80,0x01,0x81,0x01,0x82,0x01,0x83,0x01,0x85,0x01,0x06,0x01,0x70,0x01},
{ 0x03,0x00,0x07,0x99,0x50,0x00,0x70,0x00,0x00,0x01},
{ 0x03,0x00,0x09,0x99,0x50,0x80,0xCA,0x00,0xFE,0x02,0xDF,0x21 }
};
uint8_t NQ220_cmds[][255] =
{
{ 0x20,0x00,0x01,0x00 },
{ 0x20,0x01,0x00 },
{ 0x2F,0x02,0x00 },
{ 0x20,0x03,0x03,0x01,0xA0,0x0F },
{ 0x20,0x03,0x07,0x03,0xA0,0x02,0xA0,0x03,0xA0,0x04 },
{ 0x20,0x02,0x05,0x01,0xA0,0x44,0x01,0x00 },
{ 0x20,0x02,0x0B,0x02,0xA0,0x66,0x01,0x00,0xA0,0x0E,0x03,0x02,0x09,0x00 },
{ 0x20,0x02,0x26,0x09,0xA0,0xEC,0x01,0x01,0xA0,0xED,0x01,0x03,0xA0,0x5E,0x01,0x01,0xA0,0x12,0x01,0x02,0xA0,0x40,0x01,0x01,0xA0,0xDD,0x01,0x2D,0xA0,0xF2,0x01,0x01,0xA0,0x96,0x01,0x01,0xA0,0x9F,0x02,0x08,0x08 },
{ 0x20,0x03,0x03,0x01,0xA0,0xEC },
{ 0x20,0x03,0x03,0x01,0xA0,0x14 },
{ 0x20,0x02,0x2E,0x0E,0x28,0x01,0x00,0x21,0x01,0x00,0x30,0x01,0x08,0x31,0x01,0x03,0x32,0x01,0x60,0x38,0x01,0x01,0x33,0x04,0x01,0x02,0x03,0x04,0x54,0x01,0x06,0x50,0x01,0x02,0x5B,0x01,0x00,0x80,0x01,0x01,0x81,0x01,0x01,0x82,0x01,0x0E,0x18,0x01,0x01 },
{ 0x20,0x02,0x05,0x01,0xA0,0x62,0x01,0x01 },
{ 0x20,0x02,0x06,0x01,0xA0,0xF3,0x02,0x10,0x27 },
{ 0x20,0x03,0x03,0x01,0xA0,0x85 },
{ 0x21,0x01,0x07,0x00,0x01,0x01,0x03,0x00,0x01,0x05 },
{ 0x20,0x02,0x05,0x01,0xA0,0xF1,0x01,0x00 },
{ 0x20,0x02,0x05,0x01,0xA0,0x91,0x01,0x01 },
{ 0x20,0x03,0x03,0x01,0xA0,0x0F },
{ 0x20,0x03,0x03,0x01,0xA0,0xEB },
{ 0x20,0x00,0x01,0x00 },
{ 0x20,0x01,0x00 },
{ 0x20,0x03,0x02,0x01,0x00 },
{ 0x20,0x03,0x02,0x01,0x29 },
{ 0x20,0x03,0x02,0x01,0x61 },
{ 0x20,0x03,0x02,0x01,0x60 },
{ 0x21,0x00,0x0D,0x04,0x04,0x03,0x02,0x05,0x03,0x03,0x03,0x02,0x01,0x80,0x01,0x80 },
{ 0x22,0x00,0x01,0x01 },
{ 0x20,0x04,0x06,0x03,0x01,0x01,0x02,0x01,0x01 },
{ 0x03,0x00,0x05,0x81,0x01,0x03,0x02,0xC0 },
{ 0x03,0x00,0x05,0x81,0x01,0x06,0x01,0x00 },
{ 0x03,0x00,0x03,0x81,0x02,0x01 },
{ 0x03,0x00,0x03,0x81,0x02,0x04 },
{ 0x20,0x03,0x05,0x02,0xA0,0xEC,0xA0,0xED },
{ 0x20,0x03,0x03,0x01,0xA0,0xEB },
{ 0x20,0x03,0x03,0x01,0xA0,0xF0 },
{ 0x20,0x03,0x05,0x02,0xA0,0xEC,0xA0,0xED },
{ 0x20,0x03,0x03,0x01,0xA0,0x14 },
{ 0x20,0x03,0x03,0x01,0xA0,0xEB },
{ 0x20,0x03,0x03,0x01,0xA0,0x07 },
{ 0x20,0x02,0x05,0x01,0xA0,0x07,0x01,0x03 },
{ 0x20,0x03,0x02,0x01,0x52 },
{ 0x21,0x01,0x16,0x00,0x04,0x01,0x03,0x00,0x01,0x03,0x01,0x03,0x00,0x41,0x04,0x01,0x03,0x00,0x41,0xA0,0x01,0x03,0x00,0x01,0x05 },
{ 0x20,0x02,0x0A,0x03,0x32,0x01,0x20,0x38,0x01,0x01,0x50,0x01,0x00 },
{ 0x21,0x03,0x07,0x03,0x80,0x01,0x81,0x01,0x82,0x01 },
{ 0x21,0x06,0x01,0x00 },
{ 0x20,0x02,0x17,0x01,0x61,0x14,0x46,0x66,0x6D,0x01,0x01,0x12,0x02,0x02,0x07,0xFF,0x03,0x02,0x00,0x13,0x04,0x01,0x64,0x07,0x01,0x03 },
{ 0x20,0x02,0x0A,0x03,0x32,0x01,0x60,0x38,0x01,0x01,0x50,0x01,0x02 },
{ 0x21,0x03,0x19,0x0C,0x00,0x01,0x01,0x01,0x02,0x01,0x03,0x01,0x05,0x01,0x80,0x01,0x81,0x01,0x82,0x01,0x83,0x01,0x85,0x01,0x06,0x01,0x70,0x01 }
};

724
feeds/wifi-ax/ftm/src/ftm_nfcqti.c Executable file
View File

@@ -0,0 +1,724 @@
/*=========================================================================
NFC FTM Source File
Description
This file contains the routines to communicate with the NFCC in FTM mode.
Copyright (c) 2015 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
===========================================================================*/
/*==========================================================================*
* INCLUDE FILES *
*==========================================================================*/
#include "ftm_nfcqti.h"
#define UNUSED(x) (void)(x)
/*=========================================================================*
* file scope local defnitions *
*==========================================================================*/
const hw_module_t* hw_module = NULL;
nfc_nci_device_t* dev = NULL;
uint8 hal_state = NCI_HAL_INIT, nfc_ftmthread = FALSE;
uint8 *nfc_cmd_buff = NULL, len = 0;
uint16 res_len = 0, async_msg_cnt = 0;
uint8 *response_buff = NULL;
static uint8 hal_opened = FALSE, wait_rsp = FALSE;
static uint8 async_msg_available = FALSE, ftm_data_rsp_pending = FALSE;
asyncdata *buff = NULL;
asyncdata *start = NULL;
/*I2C read/write*/
static uint8 i2c_cmd_cnt = 0;
uint8 i2c_status=0,i2c_req_write = FALSE, i2c_req_read = FALSE;
uint8 i2c_num_of_reg_to_read = 0, i2c_reg_read_data[40]={0}, ii = 0;
pthread_mutex_t nfcftm_mutex = PTHREAD_MUTEX_INITIALIZER;
/*===================================================================================*
* Function Defnitions *
*===================================================================================*/
/*====================================================================================
FUNCTION nfc_ftm_hal_cback
DESCRIPTION
This is the call back function which will indicate if the nfc hal open is successful
or failed.
DEPENDENCIES
NIL
RETURN VALUE
none
SIDE EFFECTS
NONE
=====================================================================================*/
static void nfc_ftm_cback(uint8 event, uint8 status)
{
switch(event)
{
case HAL_NFC_OPEN_CPLT_EVT:
if(status == HAL_NFC_STATUS_OK)
{
/* Release semaphore to indicate that hal open is done
and change the state to write.*/
hal_state = NCI_HAL_WRITE;
hal_opened = TRUE;
printf("HAL Open Success..state changed to Write \n");
}
else
{
printf("HAL Open Failed \n");
hal_state = NCI_HAL_ERROR;
hal_opened = FALSE;
}
sem_post(&semaphore_halcmd_complete);
break;
case HAL_NFC_CLOSE_CPLT_EVT:
printf("HAL_NFC_CLOSE_CPLT_EVT recieved..\n");
break;
default:
printf ("nfc_ftm_hal_cback unhandled event %x \n", event);
break;
}
}
/*==========================================================================================
FUNCTION fill_async_data
DESCRIPTION
This function will store all the incoming async msgs( like ntfs and data from QCA1990)
in to a list to be committed further.
DEPENDENCIES
NIL
RETURN VALUE
NONE
SIDE EFFECTS
NONE
==============================================================================================*/
void fill_async_data(uint16 data_len, uint8 *p_data)
{
uint16 i = 0;
asyncdata *next_node = NULL;
printf("fill_async_data() function \n");
/* Initialize a list which will store all async message untill they are sent*/
if(buff == NULL)
{
/* first node creation*/
buff = (asyncdata*)malloc(sizeof(asyncdata));
if(buff)
{
start = buff;
buff->response_buff = (uint8*)malloc(data_len);
if(buff->response_buff)
{
memcpy(buff->response_buff, p_data, data_len);
buff->async_datalen = data_len;
buff->next = NULL;
async_msg_cnt = 0;
async_msg_cnt++;
}
else
{
printf("mem allocation failed while storing asysnc msg \n");
}
}
else
{
printf("mem allocation failed while trying to make the async list \n");
}
}
else
{
/* this is the case when some data is already present in the list which has not been sent yet*/
next_node = (asyncdata*)malloc(sizeof(asyncdata));
if(next_node)
{
next_node->response_buff = (uint8*)malloc(data_len);
if(next_node->response_buff)
{
memcpy(next_node->response_buff, p_data,data_len);
next_node->async_datalen = data_len;
next_node->next = NULL;
async_msg_cnt++;
while(buff->next != NULL)
{
buff = buff->next;
}
buff->next = next_node;
}
else
{
printf("mem allocation failed while storing asysnc msg \n");
}
}
else
{
printf("mem allocation failed while trying to make the async list \n");
}
}
}
/*======================================================================================================
FUNCTION nfc_ftm_data_cback
DESCRIPTION
This is the call back function which will provide back incoming data from the QCA1990
to nfc ftm.
DEPENDENCIES
NIL
RETURN VALUE
NONE
SIDE EFFECTS
NONE
========================================================================================================*/
static void nfc_ftm_data_cback(uint16 data_len, uint8 *p_data)
{
uint8 i = 0;
if(hal_opened == FALSE)
{
/* Reject data call backs untill HAL in initialized */
return;
}
if((data_len == 0x00) || (p_data == NULL))
{
printf("Error case : wrong data lentgh or buffer revcieved \n");
return;
}
if((i2c_req_write == TRUE) || (i2c_req_read == TRUE))
{
if(i2c_req_write)
{
/*check the incoming status*/
if(p_data[0] != 0x00) /* 0x00 = Command executed successfully*/
{
/* some error has occured in I2C write.Send the status code back now to pc app*/
i2c_status = p_data[0];
printf("Error occured in I2C write .. reporting to application..Error Code = %X \n", i2c_status);
hal_state = NCI_HAL_READ;
sem_post(&semaphore_halcmd_complete);
}
else
{
/*status is fine. Complete further requests as ftmdaemon is writing one by one*/
if(len)
{
/*send further addr and value pair*/
printf("I2C write status correct..sending next..\n");
hal_state = NCI_HAL_WRITE;
}
else
{
/*All I2C write completed .Send final status to app*/
i2c_status = p_data[0];
printf(" All I2C write completed i2c_status = %X \n", i2c_status);
hal_state = NCI_HAL_READ;
}
sem_post(&semaphore_halcmd_complete);
}
}
else
{
/*I2C read rsp arrived . fill it in buffer if correct or report error if wrong*/
if(p_data[0] != 0x00)
{
/* some error has occured in I2C read.Send the status code to app*/
i2c_status = p_data[0];
printf("Error occured in I2C read .. reporting to application..Error Code = %X \n", i2c_status);
hal_state = NCI_HAL_READ;
memset(nfc_cmd_buff, 0, len);
sem_post(&semaphore_halcmd_complete);
}
else
{
if(len)
{
/*send further addr to read*/
i2c_status = p_data[0];
i2c_reg_read_data[ii++] = p_data[1];
hal_state = NCI_HAL_WRITE;
}
else
{
/*All I2C read completed .Send the read data back to pc app*/
i2c_status = p_data[0];
i2c_reg_read_data[ii++] = p_data[1];
hal_state = NCI_HAL_READ;
ii = 0;
}
sem_post(&semaphore_halcmd_complete);
}
}
}
else
{
if(((p_data[0] & 0xF0) == 0x60 /*ntf packets*/) || ((p_data[0] & 0xF0) == 0x00)/*data packet rsps*/)
{
async_msg_available = TRUE;
pthread_mutex_lock(&nfcftm_mutex);
fill_async_data(data_len, p_data);
pthread_mutex_unlock(&nfcftm_mutex);
if(ftm_data_rsp_pending == TRUE)
{
printf("Sending data rsp \n");
hal_state = NCI_HAL_READ;
sem_post(&semaphore_halcmd_complete);
ftm_data_rsp_pending = FALSE;
}
else
{
if((wait_rsp == FALSE) || ((p_data[0] == 0x60) && (p_data[1] == 0x00)))
{
/*This is the case when ntf receieved after rsp is logged to pc app*/
printf("Sending async msg to logging subsystem \n");
hal_state = NCI_HAL_ASYNC_LOG;
sem_post(&semaphore_halcmd_complete);
}
}
}
else
{
if(response_buff || res_len)
{
printf("nfc_ftm_data_cback : response_buff = %p, res_len = %d", response_buff, res_len);
return;
}
response_buff = (uint8*)malloc(data_len);
if(response_buff)
{
memcpy(response_buff, p_data, data_len);
res_len = data_len;
printf("nfc_ftm_data_cback: res_len=%d data_len=%d response_buff= %X %X %X %X %X %X \n", res_len,data_len, \
response_buff[0],response_buff[1],response_buff[2],response_buff[3],response_buff[4],response_buff[5]);
hal_state = NCI_HAL_READ;
sem_post(&semaphore_halcmd_complete);
}
else
{
printf("Mem allocation failed in nfc_ftm_data_cback \n");
}
}
}
}
/*===========================================================================
FUNCTION ftm_nfc_hal_open
DESCRIPTION
This function will open the nfc hal for ftm nfc command processing.
DEPENDENCIES
NIL
RETURN VALUE
void
SIDE EFFECTS
NONE
===============================================================================*/
uint8 ftm_nfc_hal_open(void)
{
uint8 ret = 0;
ret = hw_get_module(NFC_NCI_HARDWARE_MODULE, &hw_module);
if(ret == 0)
{
dev = (nfc_nci_device_t*)malloc(sizeof(nfc_nci_device_t));
if(!dev)
{
printf("NFC FTM : mem allocation failed \n");
return FALSE;
}
else
{
ret = nfc_nci_open (hw_module, &dev);
if(ret != 0)
{
printf("NFC FTM : nfc_nci_open fail \n");
free(dev);
return FALSE;
}
else
{
printf("NFC FTM : opening NCI HAL \n");
dev->common.reserved[0] = FTM_MODE;
dev->open (dev, nfc_ftm_cback, nfc_ftm_data_cback);
sem_wait(&semaphore_halcmd_complete);
}
}
}
else
{
printf("NFC FTM : hw_get_module() call failed \n");
return FALSE;
}
return TRUE;
}
/*=================================================================================================
FUNCTION ftm_nfc_log_send_msg
DESCRIPTION
This function will log the asynchronous messages(NTFs and data packets) to the logging subsystem
of DIAG.
DEPENDENCIES
RETURN VALUE
TRUE if data logged successfully and FALSE if failed.
SIDE EFFECTS
None
==================================================================================================*/
int ftm_nfc_log_send_msg(void)
{
uint16 i = 0;
ftm_nfc_log_pkt_type* ftm_nfc_log_pkt_ptr = NULL;
asyncdata* node = NULL;
uint8 arr[1]= {'\n'};
if(log_status(LOG_NFC_FTM))
{
buff = start;
if(buff != NULL)
{
do{
printf("buff->async_datalen : %d \n", buff->async_datalen);
ftm_nfc_log_pkt_ptr = (ftm_nfc_log_pkt_type *)log_alloc(LOG_NFC_FTM, (FTM_NFC_LOG_HEADER_SIZE + (buff->async_datalen)));
if(ftm_nfc_log_pkt_ptr)
{
memcpy((void *)ftm_nfc_log_pkt_ptr->data, (void *)buff->response_buff, buff->async_datalen);
printf("Async msg is = ");
for(i=0; i<buff->async_datalen; i++)
{
printf("%X ", ftm_nfc_log_pkt_ptr->data[i]);
}
printf("%c",arr[0]);
node = buff;
buff = buff->next;
free(node);
printf("Commiting the log message(async msg) \n");
log_commit(ftm_nfc_log_pkt_ptr);
}
else
{
printf("\nmem alloc failed in log_alloc \n");
return FALSE;
}
}while(buff != NULL);
printf("all msgs committed \n");
async_msg_available = FALSE;
return TRUE;
}
else
{
printf("No async message left to be logged \n");
}
}
else
{
printf("LOG_NFC_FTM code is not enabled in logging subsystem \n");
}
return FALSE;
}
/*===========================================================================
FUNCTION nfc_ftm_readerthread
DESCRIPTION
Thread Routine to perfom asynchrounous handling of events coming from
NFCC. It will perform read and write for all type of commands/data.
DEPENDENCIES
RETURN VALUE
RETURN NIL
SIDE EFFECTS
None
===========================================================================*/
void* nfc_ftm_thread(void *ptr)
{
uint8 i2c_buff[3] = {0};
UNUSED(ptr);
while(1)
{
printf("Waiting for Cmd/Rsp \n");
sem_wait (&semaphore_halcmd_complete);
switch(hal_state)
{
case NCI_HAL_INIT:
printf("NFC FTM : HAL Open request recieved..\n");
if(ftm_nfc_hal_open() == FALSE)
{
hal_state = NCI_HAL_ERROR;
hal_opened = FALSE;
}
else
{
break;
}
case NCI_HAL_ERROR:
/* HAL open failed.Post sem and handle error case*/
sem_post(&semaphore_nfcftmcmd_complete);
break;
case NCI_HAL_WRITE:
if(dev != NULL)
{
printf("NFC FTM : Cmd recieved for nfc ftm..sending.\n");
if((!i2c_req_write) && (!i2c_req_read))
{
/* send data to the NFCC*/
if(nfc_cmd_buff[0] == 0x00 /*data req*/)
{
printf("Data send request arrived \n");
ftm_data_rsp_pending = TRUE;
}
else
{
printf("cmd request arrived \n");
wait_rsp = TRUE;
}
dev->write(dev, len, nfc_cmd_buff);
}
else
{
if(i2c_req_write)
{
i2c_buff[0] = 0xFF;
i2c_buff[1] = nfc_cmd_buff[i2c_cmd_cnt++]; /* addr*/
i2c_buff[2] = nfc_cmd_buff[i2c_cmd_cnt++]; /*value*/
len -=2;
dev->write(dev, 3, i2c_buff);
}
else
{
/* I2c Read req*/
i2c_buff[0] = 0xFF;
i2c_buff[1] = nfc_cmd_buff[i2c_cmd_cnt++]; /* I2C addr to read*/
i2c_reg_read_data[ii++] = i2c_buff[1]; /* store address to send in response.*/
len -= 1;
dev->write(dev, 2, i2c_buff);
}
}
}
else
{
printf("dev is null \n");
}
break;
case NCI_HAL_READ:
/* indicate to ftm that response is avilable now*/
sem_post(&semaphore_nfcftmcmd_complete);
printf("NFC FTM : State changed to READ i2c_req_read: %d\n",i2c_req_read);
break;
case NCI_HAL_ASYNC_LOG:
/* indicate to ftm that response is avilable now*/
printf("NFC FTM : State changed to NCI_HAL_ASYNC_LOG.Logging aysnc message \n");
pthread_mutex_lock(&nfcftm_mutex);
if(ftm_nfc_log_send_msg())
{
printf("async msgs commited to the log system..changing HAL state to write \n");
}
else
{
printf("async msgs commit failed..changing HAL state to write \n");
}
hal_state = NCI_HAL_WRITE;
pthread_mutex_unlock(&nfcftm_mutex);
break;
default:
break;
}
}
}
/*===========================================================================
FUNCTION ftm_nfc_dispatch
DESCRIPTION
This is the function which will be called by the NFC FTM layer callback function
registered with the DIAG service./
DEPENDENCIES
RETURN VALUE
RETURN rsp pointer(containing the NFCC rsp packets) to the callback function
(subsequently for DIAG service)
SIDE EFFECTS
None
===========================================================================*/
void* ftm_nfc_dispatch_qti(ftm_nfc_pkt_type *nfc_ftm_pkt, uint16 pkt_len)
{
ftm_nfc_i2c_write_rsp_pkt_type *i2c_write_rsp = NULL;
ftm_nfc_i2c_read_rsp_pkt_type *i2c_read_rsp = NULL;
ftm_nfc_pkt_type *rsp = NULL;
ftm_nfc_data_rsp_pkt_type *nfc_data_rsp = NULL;
struct timespec time_sec;
int sem_status;
UNUSED(pkt_len);
printf("NFC FTM : nfc ftm mode requested \n");
if(nfc_ftm_pkt == NULL)
{
printf("Error : NULL packet recieved from DIAG \n");
goto error_case;
}
/* Start nfc_ftm_thread which will process all requests as per
state machine flow. By Default First state will be NCI_HAL_INIT*/
if(!nfc_ftmthread)
{
if(sem_init(&semaphore_halcmd_complete, 0, 1) != 0)
{
printf("NFC FTM :semaphore_halcmd_complete creation failed \n");
goto error_case;
}
if(sem_init(&semaphore_nfcftmcmd_complete, 0, 0) != 0)
{
printf("NFC FTM :semaphore_nfcftmcmd_complete creation failed \n");
goto error_case;
}
printf("NFC FTM : nfc ftm thread is being started \n");
pthread_create(&nfc_thread_handle, NULL, nfc_ftm_thread, NULL);
nfc_ftmthread = TRUE;
}
/* parse the diag packet to identify the NFC FTM command which needs to be sent
to QCA 1990*/
if(nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_len > 2)
{
len = nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_len-2;
}
else
{
/*Wrong nfc ftm packet*/
goto error_case;
}
switch(nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id)
{
case FTM_NFC_I2C_SLAVE_WRITE:
i2c_req_write = TRUE;
break;
case FTM_NFC_I2C_SLAVE_READ:
i2c_num_of_reg_to_read = len;
i2c_req_read = TRUE;
break;
case FTM_NFC_NFCC_COMMAND:
case FTM_NFC_SEND_DATA:
break;
default :
goto error_case;
break;
}
/*copy command to send it further to QCA1990*/
nfc_cmd_buff = (uint8 *)malloc(len+1);
if(nfc_cmd_buff)
{
memcpy(nfc_cmd_buff, nfc_ftm_pkt->nci_data, len);
}
else
{
printf("Mem allocation failed for cmd storage");
goto error_case;
}
/*send the command */
sem_post(&semaphore_halcmd_complete);
printf("\nwaiting for nfc ftm response \n");
if (clock_gettime(CLOCK_REALTIME, &time_sec) == -1)
{
printf("get clock_gettime error");
}
time_sec.tv_sec += FTM_NFC_CMD_CMPL_TIMEOUT;
sem_status = sem_timedwait(&semaphore_nfcftmcmd_complete,&time_sec);
if(sem_status == -1)
{
printf("nfc ftm command timed out\n");
goto error_case;
}
if(!hal_opened)
{
/*Hal open is failed */
free(nfc_cmd_buff);
hal_state = NCI_HAL_INIT;
goto error_case;
}
printf("\n\n *****Framing the response to send back to Diag service******** \n\n");
/* Frame the response as per the cmd request*/
switch(nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id)
{
case FTM_NFC_I2C_SLAVE_WRITE:
printf("Framing the response for FTM_NFC_I2C_SLAVE_WRITE cmd \n");
i2c_write_rsp = (ftm_nfc_i2c_write_rsp_pkt_type*)diagpkt_subsys_alloc(DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof(ftm_nfc_i2c_write_rsp_pkt_type));
if(i2c_write_rsp)
{
i2c_write_rsp->nfc_i2c_slave_status = i2c_status;
i2c_status = 0;
i2c_cmd_cnt = 0;
i2c_req_write = FALSE;
}
break;
case FTM_NFC_I2C_SLAVE_READ:
printf("Framing the response for FTM_NFC_I2C_SLAVE_READ cmd \n");
i2c_read_rsp = (ftm_nfc_i2c_read_rsp_pkt_type*)diagpkt_subsys_alloc(DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof(ftm_nfc_i2c_read_rsp_pkt_type));
if(i2c_read_rsp)
{
i2c_read_rsp->ftm_nfc_hdr.nfc_cmd_id = FTM_NFC_I2C_SLAVE_READ;
i2c_read_rsp->ftm_nfc_hdr.nfc_cmd_len = 2+(2*i2c_num_of_reg_to_read);
i2c_read_rsp->nfc_i2c_slave_status = i2c_status;
if(i2c_status == 0x00)
{
i2c_read_rsp->nfc_nb_reg_reads = i2c_num_of_reg_to_read;
}
else
{
i2c_read_rsp->nfc_nb_reg_reads = 0x00; // error case so return num of read as 0x00.
}
memcpy(i2c_read_rsp->i2c_reg_read_rsp, i2c_reg_read_data, (i2c_num_of_reg_to_read*2));
i2c_cmd_cnt = 0;
}
break;
case FTM_NFC_NFCC_COMMAND:
printf("Framing the response for FTM_NFC_NFCC_COMMAND cmd \n");
if(response_buff && res_len)
{
rsp = (ftm_nfc_pkt_type*)diagpkt_subsys_alloc(DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof(ftm_nfc_pkt_type));
if(rsp)
{
rsp->ftm_nfc_hdr.nfc_cmd_id = FTM_NFC_NFCC_COMMAND;
rsp->ftm_nfc_hdr.nfc_cmd_len = 2+res_len;
rsp->nfc_nci_pkt_len = res_len;
memcpy(rsp->nci_data, response_buff, res_len);
free(response_buff);
response_buff = 0;
res_len = 0;
}
}
else
printf("ftm_nfc_dispatch : response_buff = %p, res_len = %d", response_buff, res_len);
break;
case FTM_NFC_SEND_DATA:
printf("Framing the response for FTM_NFC_SEND_DATA cmd \n");
nfc_data_rsp = (ftm_nfc_data_rsp_pkt_type*)diagpkt_subsys_alloc(DIAG_SUBSYS_FTM,
FTM_NFC_CMD_CODE,
sizeof(ftm_nfc_data_rsp_pkt_type));
if(nfc_data_rsp)
{
nfc_data_rsp->ftm_nfc_hdr.nfc_cmd_id = FTM_NFC_SEND_DATA;
nfc_data_rsp->ftm_nfc_hdr.nfc_cmd_len = 0;/*Rsp as per the NFC FTM data rsp req*/
}
break;
default:
goto error_case;
break;
}
free(nfc_cmd_buff);
hal_state = NCI_HAL_WRITE;
if(async_msg_available)
{
printf(" Some async message available.. committing now.\n");
hal_state = NCI_HAL_ASYNC_LOG;
sem_post(&semaphore_halcmd_complete);
}
wait_rsp = FALSE;
if(nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id == FTM_NFC_I2C_SLAVE_WRITE)
{
return(void*)i2c_write_rsp;
}
else if(nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id == FTM_NFC_I2C_SLAVE_READ)
{
i2c_req_read = FALSE;
return(void*)i2c_read_rsp;
}
else if(nfc_ftm_pkt->ftm_nfc_hdr.nfc_cmd_id == FTM_NFC_NFCC_COMMAND)
{
return(void*)rsp;
}
else
{
return(void*)nfc_data_rsp;
}
error_case:
return NULL;
}

141
feeds/wifi-ax/ftm/src/ftm_nfcqti.h Executable file
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#ifndef FTM_NFCQTI_H_
#define FTM_NFCQTI_H_
/*==========================================================================
nfc FTM header File
Description
This file contains the decalarations used by ftm_nfc.c
Copyright (c) 2015 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
08/06/13 NFC FTM layer
===========================================================================*/
#ifdef CONFIG_FTM_NFC
#include "stdio.h"
#include <pthread.h>
#include <semaphore.h>
#include <unistd.h>
#include <sys/types.h>
#include <hardware/nfc.h>
#include <hardware/hardware.h>
#include <malloc.h>
#include <string.h>
#include "msg.h"
#include "log.h"
#include "diag_lsm.h"
#include "diagpkt.h"
#include "diagcmd.h"
#include "diag.h"
#include "termios.h"
/*==========================================================================*
* Defnitions *
*==========================================================================*/
#define FTM_MODE 1
#define TRUE 1
#define FALSE 0
#define FTM_MODE 1
#define FTM_NFC_CMD_CODE 55
#define LOG_NFC_FTM 0x1802
#define FTM_NFC_LOG_HEADER_SIZE 12
#define FTM_NFC_I2C_SLAVE_WRITE 0x00
#define FTM_NFC_I2C_SLAVE_READ 0x01
#define FTM_NFC_NFCC_COMMAND 0x02
#define FTM_NFC_SEND_DATA 0x03
#define FTM_NFC_CMD_CMPL_TIMEOUT 15
#ifdef ANDROID_M
#define NFC_NCI_HARDWARE_MODULE "nfc_nci.qc199x"
#else
#define NFC_NCI_HARDWARE_MODULE "nfc_nci"
#endif
enum
{
NCI_HAL_INIT,
NCI_HAL_WRITE,
NCI_HAL_READ,
NCI_HAL_DEINIT,
NCI_HAL_ASYNC_LOG,
NCI_HAL_ERROR
};
/*==========================================================================*
* Declarations *
*==========================================================================*/
/* Reader thread handle */
pthread_t nfc_thread_handle;
sem_t semaphore_halcmd_complete;
sem_t semaphore_nfcftmcmd_complete;
/* structure that contains nfc cmd id and len
part of the packet recieved from DIAG*/
PACKED struct ftm_nfc_cmd_header_type{
uint16 nfc_cmd_id;
uint16 nfc_cmd_len;
};
/* nfc FTM packet(for NCI cmd/rsp messages)*/
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
struct ftm_nfc_cmd_header_type ftm_nfc_hdr;
uint16 nfc_nci_pkt_len;
byte nci_data[258];
}ftm_nfc_pkt_type;
/* nfc FTM packet (for I2C write messgaes)*/
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
uint8 nfc_i2c_slave_status;
}ftm_nfc_i2c_write_rsp_pkt_type;
/* nfc FTM packet (for I2C read messgaes)*/
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
struct ftm_nfc_cmd_header_type ftm_nfc_hdr;
uint8 nfc_i2c_slave_status;
uint8 nfc_nb_reg_reads;
byte i2c_reg_read_rsp[30];
}ftm_nfc_i2c_read_rsp_pkt_type;
typedef PACKED struct{
diagpkt_subsys_header_type diag_hdr;
struct ftm_nfc_cmd_header_type ftm_nfc_hdr;
}ftm_nfc_data_rsp_pkt_type;
typedef PACKED struct{
log_hdr_type hdr;
byte data[1];
}ftm_nfc_log_pkt_type;
/*Data buffer linked list*/
typedef struct asyncdata {
uint8 *response_buff;
uint8 async_datalen;
struct asyncdata *next;
}asyncdata;
typedef void (tHAL_NFC_CBACK) (uint8 event, uint8 status);
typedef void (tHAL_NFC_DATA_CBACK) (uint16 data_len, uint8 *p_data);
void* ftm_nfc_dispatch_qti(ftm_nfc_pkt_type *ftm_nfc_pkt, uint16 pkt_len);
#endif /* CONFIG_FTM_NFC */
#endif /* FTM_NFCQTI_H_ */

1110
feeds/wifi-ax/ftm/src/ftm_wlan.c Executable file
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File diff suppressed because it is too large Load Diff

221
feeds/wifi-ax/ftm/src/ftm_wlan.h Executable file
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/*==========================================================================
FTM WLAN Header File
Description
The header file includes enums, struct definitions for WLAN FTM packets
# Copyright (c) 2010-2011, 2014 by Qualcomm Technologies, Inc.
# All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
07/11/11 karthikm Created header file to include enums, struct for WLAN FTM
for Atheros support
========================================================================*/
#ifndef FTM_WLAN_H_
#define FTM_WLAN_H_
#ifdef CONFIG_FTM_WLAN
#include "diagpkt.h"
#include <sys/types.h>
#define FTM_WLAN_CMD_CODE 22
/* TODO: For LE platforms only - need to extend it for BE platform too*/
#define cpu32_to_le32(buf, val) \
do { \
buf[0] = val & 0xff; \
buf[1] = (val >> 8) & 0xff; \
buf[2] = (val >> 16) & 0xff; \
buf[3] = (val >> 24) & 0xff; \
} while(0)
/* TODO: For LE platforms only - need to extend it for BE platform too*/
#define le_to_cpu16(buf, uint16_val) \
do { \
uint16_val = (buf[0] | buf[1] << 8); \
} while(0)
/* TODO: For LE platforms only - need to extend it for BE platform too*/
#define le_to_cpu32(buf, uint32_val) \
do { \
uint32_val = (buf[0] | buf[1] << 8 | buf[2] << 16 | buf[3] << 24); \
} while(0)
extern char g_ifname[];
/* Various ERROR CODES supported by the FTM WLAN module*/
typedef enum {
FTM_ERR_CODE_PASS = 0,
FTM_ERR_CODE_IOCTL_FAIL,
FTM_ERR_CODE_SOCK_FAIL,
FTM_ERR_CODE_UNRECOG_FTM
}FTM_WLAN_LOAD_ERROR_CODES;
#define CONFIG_HOST_TCMD_SUPPORT 1
#define AR6000_IOCTL_SUPPORTED 1
#define ATH_MAC_LEN 6
typedef enum {
FTM_WLAN_COMMON_OP,
FTM_WLAN_BDF_GET_MAX_TRANSFER_SIZE,
FTM_WLAN_BDF_READ,
FTM_WLAN_BDF_WRITE,
FTM_WLAN_BDF_GET_FNAMEPATH,
FTM_WLAN_BDF_SET_FNAMEPATH
}FTM_WLAN_CMD;
typedef enum {
WLAN_BDF_READ_SUCCESS,
WLAN_BDF_READ_FAILED,
WLAN_BDF_WRITE_SUCCESS,
WLAN_BDF_WRITE_FAILED,
WLAN_BDF_INVALID_SIZE = 5,
WLAN_BDF_BAD_OFFSET,
WLAN_BDF_FILE_OPEN_FAIL,
WLAN_BDF_FILE_SEEK_FAIL,
WLAN_BDF_FILE_STAT_FAIL,
WLAN_BDF_PATH_GET_SUCCESS,
WLAN_BDF_PATH_GET_FAILED,
WLAN_BDF_PATH_SET_SUCCESS,
WLAN_BDF_PATH_SET_FAILED
}FTM_WLAN_ERROR_CODES;
#ifdef WIN_AP_HOST
#define PACKED_STRUCT __attribute__((__packed__))
#else
#define PACKED_STRUCT __attribute__((packed))
#endif
/*FTM WLAN request type*/
typedef struct
{
diagpkt_cmd_code_type cmd_code;
diagpkt_subsys_id_type subsys_id;
diagpkt_subsys_cmd_code_type subsys_cmd_code;
uint16 cmd_id; /* command id (required) */
uint16 cmd_data_len;
uint16 cmd_rsp_pkt_size;
union {
struct {
uint16 rsvd;
byte rsvd1;
byte rsvd2;
byte wlanslotno;
byte wlandeviceno;
byte data[0];
}PACKED_STRUCT common_ops;
struct {
byte rsvd[6];
byte data[0];
}PACKED_STRUCT get_max_transfer_size;
struct {
uint32 offset;
byte rsvd[2];
byte data[0];
}PACKED_STRUCT read_file;
struct {
uint16 size;
uint8 append_flag;
byte rsvd[3];
byte data[0];
}PACKED_STRUCT write_file;
struct {
byte rsvd[6];
byte data[0];
}PACKED_STRUCT get_fname;
struct {
byte rsvd[6];
byte data[0];
}PACKED_STRUCT set_fname;
}cmd;
}PACKED_STRUCT ftm_wlan_req_pkt_type;
/*FTM WLAM response type */
typedef struct
{
struct {
diagpkt_subsys_header_type header; /*diag header*/
uint16 cmd_id; /* command id (required) */
uint16 cmd_data_len;
uint16 cmd_rsp_pkt_size;
}PACKED_STRUCT common_header;
union {
struct {
uint16 rsvd;
uint32 result ;/* error_code */
union {
struct {
byte data[0]; /*rxReport*/
}rxReport;
struct {
byte data[0]; /*ThermValReport*/
}thermval_report;
}rx_and_therm;
}PACKED_STRUCT common_ops;
struct {
uint16 result; /*error_code*/
byte rsvd[4];
uint16 max_size;
}PACKED_STRUCT get_max_transfer_size;
struct {
byte result; /*error_code*/
uint16 size;
byte bytes_remaining[3];
byte data[0];
}PACKED_STRUCT read_file;
struct {
byte result;
byte rsvd[5];
byte data[0];
}PACKED_STRUCT write_file;
struct {
byte result;
byte rsvd[5];
byte data[0];
}PACKED_STRUCT get_fname;
struct {
byte result;
byte rsvd[5];
byte data[0];
}PACKED_STRUCT set_fname;
struct {
uint16 win_cmd_specific;
uint16 data_len;
uint8 rsvd;
uint8 wlandeviceno;
byte data[0];
}PACKED_STRUCT win_resp;
}cmd;
}PACKED_STRUCT ftm_wlan_rsp_pkt_type;
void* ftm_wlan_dispatch(ftm_wlan_req_pkt_type *wlan_ftm_pkt, int pkt_len);
#ifdef WIN_AP_HOST
void setBoardDataCaptureFlag (int flag);
void setDeviceId(int id);
extern ftm_wlan_rsp_pkt_type *win_bt_mac_flash_write(
ftm_wlan_req_pkt_type *wlan_ftm_pkt,
int pkt_len);
extern void win_host_handle_fw_resp (ftm_wlan_rsp_pkt_type *rsp, void *data, uint32_t data_len);
extern ftm_wlan_rsp_pkt_type *win_host_handle_bdf_req(
ftm_wlan_req_pkt_type *wlan_ftm_pkt, int pkt_len);
#endif
#endif /* CONFIG_FTM_WLAN */
#endif /* FTM_WLAN_H_ */

194
feeds/wifi-ax/ftm/src/ftm_wlan_win.h Executable file
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/*
*Copyright (c) 2017-2019 Qualcomm Technologies, Inc.
*
*All Rights Reserved.
*Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
#ifndef __FTM_WLAN_WIN_H
#define __FTM_WLAN_WIN_H
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <errno.h>
#include <fcntl.h>
#include <unistd.h>
#include <sys/ioctl.h>
#include <mtd/mtd-user.h>
#include "comdef.h"
#include "diagcmd.h"
#include "ftm_wlan.h"
#include "ftm_dbg.h"
#define MAC_XTAL_LENGTH 7
#define MAC_LENGTH_POS 103
#define MAC_POS 105
#define BT_TLV1_RESP_LEN 84
#define BT_RESP_LEN 100
#define FLASH_SECTOR_SIZE 0x10000
#define BD_LEN_EXPECTED 500
#define BD_SIZE_REQ_ID 106
#define BD_SIZE_REQ_POS 28
#define BD_SIZE_VAL 60
/* Identifier for first segment of
* Board data response
*/
#define FIRST_SEG 48
/* Identifier for second segment of
* board data response
*/
#define SECOND_SEG 49
#define THIRD_SEG 50
#define NO_ERROR 0
/* header length for first segment of
* board data response
*/
#define FIRST_SEG_TLV_HDR 84
#define SECOND_SEG_TLV_HDR 28
#define THIRD_SEG_TLV_HDR 28
#define SEQUENCE_ID_POS 24
/* Position at which first parameter of
* TLV request is located
*/
#define TLV_PAYLOAD_PARAM_1 80
/* Position at which second paramter of
* TLV request is located
*/
#define TLV_PAYLOAD_PARAM_2 96
/* Parameter 1 value if request is for
* board data capture
*/
#define BD_CAPTURE_REQ 101
/* Parameter 1 value if flash write request */
#define FLASH_WRITE_REQ 102
/* Parameter 1 value for device identify request */
#define DEVICE_IDENTIFY 103
/* Parameter 2 value for swift device identify */
#define QC9887_DEVICE_ID 0x50
#define QC9888_DEVICE_ID 0x3c
#define QC99xx_DEVICE_ID 0x46
#define QCN9000_DEVICE_ID 0x1104
#define TLV1_CMD_RESP_SIZE 118
#define TLV1_RESP_LEN 102
/* Offset at which BT_mac is to be stored in flash */
#define BT_MAC_OFFSET 0x40
#define FLASH_BASE_CALDATA_OFFSET_SOC_0 0x1000
#define FLASH_BASE_CALDATA_OFFSET_SOC_1 0x33000
#define REQ_SEG_SIZE 4096
#define FLASH_BASE_CALDATA_OFFSET_PCI_1 0x26800
#define FLASH_BASE_CALDATA_OFFSET_PCI_2 0x4C000
#define DIAG_HDR_LEN 16
#define FLASH_PARTITION "/dev/caldata"
#define VIRTUAL_FLASH_PARTITION "/tmp/virtual_art.bin"
#define WRITE_ART "/lib/compress_vart.sh write_caldata"
/* (0x33000-0x1000)=0x32000, Max available BDF size */
#define MAX_BDF_SIZE 200*1024
#define QC98XX_BLOCK_SIZE 512
#define BD_BLOCK_SIZE 256
/* Position of block size for the data */
#define QC98XX_BLOCK_SIZE_VAL 164
/* Position of block size for the data (radio != qc98XX) */
#define LEGACY_BLOCK_SIZE_VAL 100
#define M_EEEPROM_BLOCK_READ_ID_QC98XX 0xC8
#define M_EEEPROM_BLOCK_READ_ID_LEGACY 0xE9
/* Position where block data starts */
#define QC98XX_BLOCK_START_POS 200
#define LEGACY_BLOCK_START_POS 104
#define BD_READ_CMD_ID_POS 48
#define BD_READ_RESP_PARAM_POS 88
#define BD_READ_RESP_PARAM 0x7
/* Use of this parameter is not known */
#define LEGACY_RADIO_PARAM_POS 103
#define LEGACY_RADIO_PARAM_THRESHOLD 0x30
/* Valid caldata in each segment from FW */
#define CALDATA_SIZE_FIRST_SEG 1480
#define CALDATA_SIZE_SECOND_SEG 1536
#define CALDATA_SIZE_THIRD_SEG 1080
uint16_t TLV2_Specific_byte;
unsigned char BDbuffer[MAX_BDF_SIZE];
uint32_t BDbuffer_offset;
uint32_t resp_counter;
uint32_t bd_size;
uint8_t start_capture;
/* Deviceno is the instance id sent from
* Qdart for the radio.
*/
int deviceno;
/* Device id received in the radio's
* radio flash write requests, defaults to 0
*/
int deviceid = 0;
/* This is the remainder after whole 4096 size responses are sent */
uint32_t remaining_bytes ;
uint32_t total_4K_responses;
unsigned char BTsetmacResponse[] = {
0x05, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0x38, 0x00, 0x00, 0x00, 0x0F, 0xFF, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x09, 0x00, 0x00, 0x00, 0x03, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x03, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0xC6, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x03, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x02, 0x00, 0x00, 0x00,
0x03, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00
};
/* Response sent for BDcapture and Flash write Requests */
unsigned char ftm_wlan_tlvRespMsg[] = {
0x05, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x4A, 0x00, 0x00, 0x00,
0x72, 0xD0, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x09, 0x00, 0x00, 0x00,
0x04, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0x03, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0xEA, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00,
0x03, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x02, 0x00, 0x00, 0x00,
0x03, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
0x02, 0x00, 0x00, 0x00, 0x03, 0x00, 0x00, 0x00,
0x07, 0x00, 0x00, 0x00, 0x02, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00, 0x20, 0x2F
};
#endif /* __FTM_WLAN_WIN_H */

505
feeds/wifi-ax/ftm/src/ftm_write_to_flash.c Executable file
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@@ -0,0 +1,505 @@
/*
*Copyright (c) 2017-2019 Qualcomm Technologies, Inc.
*
*All Rights Reserved.
*Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
#ifdef WIN_AP_HOST
#include "ftm_wlan_win.h"
#include <string.h>
/*===========================================================================
FUNCTION bt_setmac_flash_write
DESCRIPTION
Write MAC and XTAL to flash region
DEPENDENCIES
NIL
RETURN VALUE
Returns status success or failure
SIDE EFFECTS
NONE
===========================================================================*/
int bt_setmac_flash_write(uint8_t *mac, unsigned int len)
{
int fd;
int offset;
int i;
uint8_t *flashdata;
fd = open(VIRTUAL_FLASH_PARTITION, O_RDWR);
if (fd < 0) {
perror("Could not open flash. Returning without write\n");
return -1;
}
DPRINTF(FTM_DBG_TRACE,"\nNumber of bytes = %d\n",len);
offset = BT_MAC_OFFSET;
lseek(fd, offset, SEEK_SET);
if (write(fd, mac, len) < 1) {
DPRINTF(FTM_DBG_TRACE,"flash write error. Returning\n");
close(fd);
return -1;
}
DPRINTF(FTM_DBG_TRACE,
"BT mac written successfully to flash @ offset %X size %X\n",
offset, len);
flashdata = (uint8_t *)malloc(len);
if (!flashdata){
DPRINTF(FTM_DBG_TRACE, "Write verification failed. Unable to allocate memory.\n");
close(fd);
return -1;
}
lseek(fd, offset, SEEK_SET);
if (read(fd, flashdata, len) < 1){
DPRINTF(FTM_DBG_TRACE, "Flashdata read failed\n");
free(flashdata);
return -1;
}
for(i = 0; i < len; i++){
DPRINTF(FTM_DBG_TRACE, "input mac = 0x%x, flashdata = 0x%x\n", mac[i], flashdata[i]);
}
free(flashdata);
close(fd);
return 1;
}
/*===========================================================================
FUNCTION win_bt_mac_flash_write
DESCRIPTION
Call bt_setmac_flash_write function and populate response to Qdart
DEPENDENCIES
NIL
RETURN VALUE
Returns resp to qdart
SIDE EFFECTS
NONE
===========================================================================*/
ftm_wlan_rsp_pkt_type *win_bt_mac_flash_write(ftm_wlan_req_pkt_type *wlan_ftm_pkt, int pkt_len)
{
int i;
int status;
ftm_wlan_rsp_pkt_type *rsp;
unsigned char BtDiagMAC[MAC_XTAL_LENGTH];
unsigned int dataLen = 0;
uint8_t *input_msg = (uint8_t*)wlan_ftm_pkt;
TLV2_Specific_byte = wlan_ftm_pkt->cmd.common_ops.rsvd;
dataLen = input_msg[MAC_LENGTH_POS];
for(i=0; i<dataLen; i++)
BtDiagMAC[i]= input_msg[MAC_POS + i];
rsp = (ftm_wlan_rsp_pkt_type*)diagpkt_subsys_alloc(DIAG_SUBSYS_FTM,
FTM_WLAN_CMD_CODE,
(sizeof(rsp->common_header) +
sizeof(rsp->cmd.common_ops)+
BT_TLV1_RESP_LEN ));
if (!rsp)
return rsp;
rsp->common_header.cmd_rsp_pkt_size = BT_RESP_LEN;
rsp->common_header.cmd_data_len = 0;
rsp->cmd.win_resp.data_len = BT_TLV1_RESP_LEN;
rsp->cmd.win_resp.win_cmd_specific = TLV2_Specific_byte;
status = bt_setmac_flash_write(BtDiagMAC, dataLen);
if (status > 0) {
memcpy(rsp->cmd.win_resp.data, BTsetmacResponse, BT_TLV1_RESP_LEN);
DPRINTF(FTM_DBG_TRACE,"Response sent to Qdart\n");
/*print_uchar_array((uint8_t*)(rsp->cmd.win_resp.data), BT_TLV1_RESP_LEN);*/
return rsp;
}
else
return rsp;
}
/*===========================================================================
FUNCTION win_host_handle_bdf_req
DESCRIPTION
Function to process WIN specific bdf requests.
This handles the requests related to device identify,
boarddata capture and flash write requests, and sends
the response to QDART.
DEPENDENCIES
NIL
RETURN VALUE
Returns back buffer that is meant for diag callback
SIDE EFFECTS
NONE
===========================================================================*/
ftm_wlan_rsp_pkt_type *win_host_handle_bdf_req(ftm_wlan_req_pkt_type *wlan_ftm_pkt, int pkt_len)
{
uint8_t *input_msg = (uint8_t*)wlan_ftm_pkt;
int error = 0;
int fd;
int file_offset;
int art_slot_id;
ftm_wlan_rsp_pkt_type *rsp;
deviceno = wlan_ftm_pkt->cmd.common_ops.wlandeviceno;
art_slot_id = wlan_ftm_pkt->cmd.common_ops.wlanslotno;
TLV2_Specific_byte = wlan_ftm_pkt->cmd.common_ops.rsvd;
rsp = (ftm_wlan_rsp_pkt_type*)diagpkt_subsys_alloc(DIAG_SUBSYS_FTM,
FTM_WLAN_CMD_CODE,
(sizeof(rsp->common_header) +
sizeof(rsp->cmd.common_ops)+
TLV1_RESP_LEN));
if (rsp == NULL) {
DPRINTF(FTM_DBG_ERROR, "Failed to allocate Diag packet: %p\n", rsp);
return rsp;
}
rsp->cmd.win_resp.win_cmd_specific = htole16(TLV2_Specific_byte);
rsp->common_header.cmd_rsp_pkt_size = htole16(TLV1_CMD_RESP_SIZE);
rsp->common_header.cmd_data_len = 0;
rsp->cmd.win_resp.data_len = htole16(TLV1_RESP_LEN);
rsp->cmd.win_resp.rsvd = 0;
rsp->cmd.win_resp.wlandeviceno = deviceno;
DPRINTF(FTM_DBG_TRACE, "Received FTM daemon specific TLV\n");
/* Byte 80 in request signifies type of request, 101 is used for BD capture*/
if(input_msg[TLV_PAYLOAD_PARAM_1] == BD_CAPTURE_REQ) {
DPRINTF(FTM_DBG_TRACE, "BOARD_DATA_CAPTURE\n");
if (input_msg[TLV_PAYLOAD_PARAM_2] == 1) {
setBoardDataCaptureFlag(1);
} else if (input_msg[TLV_PAYLOAD_PARAM_2] == 0) {
setBoardDataCaptureFlag(0);
}
} else if (input_msg[TLV_PAYLOAD_PARAM_1] == FLASH_WRITE_REQ) {
fd = open(VIRTUAL_FLASH_PARTITION, O_RDWR);
if (fd < 0) {
DPRINTF(FTM_DBG_TRACE, "FILE OPEN FAILED\n");
error = WLAN_BDF_FILE_OPEN_FAIL;
} else {
DPRINTF(FTM_DBG_TRACE, "FILE OPEN SUCCESSFULL\n");
if (!deviceid) {
file_offset = FLASH_BASE_CALDATA_OFFSET_SOC_0;
if(art_slot_id == 1)
file_offset = FLASH_BASE_CALDATA_OFFSET_PCI_1;
else if(art_slot_id == 2)
file_offset = FLASH_BASE_CALDATA_OFFSET_PCI_2;
} else if (deviceid == QC9887_DEVICE_ID ||
deviceid == QC9888_DEVICE_ID) {
file_offset = FLASH_BASE_CALDATA_OFFSET_SOC_1;
} else if (deviceid == QC99xx_DEVICE_ID) {
file_offset = FLASH_BASE_CALDATA_OFFSET_SOC_1;
} else if (deviceid == QCN9000_DEVICE_ID) {
if(art_slot_id == 1)
file_offset = FLASH_BASE_CALDATA_OFFSET_PCI_1;
else if(art_slot_id == 2)
file_offset = FLASH_BASE_CALDATA_OFFSET_PCI_2;
else {
close(fd);
return rsp;
}
} else {
DPRINTF(FTM_DBG_TRACE, "%s:%d - Invalid Device ID %d\n",
__func__, __LINE__, deviceid);
close(fd);
return rsp;
}
lseek(fd, file_offset, SEEK_SET);
if (write(fd, BDbuffer , BDbuffer_offset) < 1) {
DPRINTF(FTM_DBG_TRACE, "%s:%d - Flash write error\n",
__func__, __LINE__);
error = WLAN_BDF_WRITE_FAILED;
close(fd);
} else {
fsync(fd);
close(fd);
system(WRITE_ART);
DPRINTF(FTM_DBG_INFO,
"Flash commit success @ offset %0x Size %d\n",
file_offset, BDbuffer_offset);
}
}
} else if (input_msg[TLV_PAYLOAD_PARAM_1] == DEVICE_IDENTIFY) {
DPRINTF(FTM_DBG_TRACE, "Device Identify \n");
setDeviceId(input_msg[TLV_PAYLOAD_PARAM_2]);
}
if (error!=NO_ERROR)
/* These commands will not go to firmware */
return rsp;
else {
memcpy(rsp->cmd.win_resp.data, ftm_wlan_tlvRespMsg, TLV1_RESP_LEN);
return rsp;
}
}
/*===========================================================================
FUNCTION setBordDataCaptureFlag
DESCRIPTION
Sets the BDCapture variable
DEPENDENCIES
NIL
RETURN VALUE
NONE
SIDE EFFECTS
NONE
===========================================================================*/
void setBoardDataCaptureFlag (int flag)
{
DPRINTF(FTM_DBG_TRACE, "Setting BDCapture flag to %d\n", flag);
if (flag == 1) {
BDbuffer_offset = 0;
resp_counter = 0;
start_capture = 1;
}
// when board data capture is turned off, set the device id to 0
if (flag == 0){
start_capture = 0;
setDeviceId(0);
}
}
/*===========================================================================
FUNCTION setDeviceId
DESCRIPTION
Sets the global variable device id, upon requests
according to the parameter 2 of the TLV command
DEPENDENCIES
NIL
RETURN VALUE
NONE
SIDE EFFECTS
NONE
============================================================================*/
void setDeviceId(int id)
{
DPRINTF(FTM_DBG_TRACE, "Setting Device id to %d\n", id);
deviceid = id;
}
/*===========================================================================
FUNCTION win_host_handle_fw_resp
DESCRIPTION
WIN specific handler for responses from FW.
FW responses for board data are snooped here
and stored in a global buffer which is then
accessed by the WIN request handler for flash
write requests.
DEPENDENCIES
NIL
RETURN VALUE
0 on success
1 on failure
SIDE EFFECTS
NONE
===========================================================================*/
void win_host_handle_fw_resp (ftm_wlan_rsp_pkt_type *rsp, void *data, uint32_t data_len)
{
uint32_t sequence_id;
int legacy_dataSize;
if (!rsp || !data || !data_len) {
DPRINTF(FTM_DBG_ERROR, "rsp/data is NULL\n");
rsp = NULL;
return;
}
rsp->cmd.win_resp.win_cmd_specific = htole16(TLV2_Specific_byte);
rsp->common_header.cmd_rsp_pkt_size = htole16(data_len + DIAG_HDR_LEN);
rsp->cmd.win_resp.data_len = htole16(data_len);
rsp->cmd.win_resp.wlandeviceno = deviceno;
rsp->cmd.win_resp.rsvd = 0;
memcpy(rsp->cmd.win_resp.data, data, data_len);
/*TODO: Need better identification method for BDF responses*/
/* Check if the deviceid is set */
switch (deviceid) {
/* DeviceId is 0 for HK and lithium family targets */
case 0:
{ /* Check if request is for BD_get size. */
if (((uint8_t *)data)[BD_SIZE_REQ_POS] == BD_SIZE_REQ_ID ) {
bd_size = 0 ;
BDbuffer_offset = 0;
resp_counter = 0;
le_to_cpu32(((uint8_t *)data + BD_SIZE_VAL), bd_size);
DPRINTF(FTM_DBG_INFO, "bd_size = %d \n", bd_size);
total_4K_responses = bd_size / REQ_SEG_SIZE;
remaining_bytes = bd_size % REQ_SEG_SIZE;
DPRINTF(FTM_DBG_INFO, "Total_responses= %d \n",
total_4K_responses);
DPRINTF(FTM_DBG_INFO, "Remaining_bytes = %d \n",
remaining_bytes);
}
if (data_len > BD_LEN_EXPECTED && start_capture == 1) {
sequence_id = ((uint8_t *)data)[SEQUENCE_ID_POS];
DPRINTF(FTM_DBG_INFO, "Sequence_ID= %d\n", sequence_id);
if (sequence_id == FIRST_SEG)
resp_counter ++;
DPRINTF(FTM_DBG_INFO, "Response counter == %d\n",
resp_counter);
DPRINTF(FTM_DBG_INFO, "Buffer offset == %d\n",
BDbuffer_offset);
if (resp_counter < total_4K_responses + 1) {
/* Handle 3 segments of BDF resonses
* 1st segment - BDF is from offset 84
* 2nd segment - BDF is from offset 28
* 3rd segment - BDF is from offset 28
*/
switch (sequence_id) {
case FIRST_SEG:
memcpy(BDbuffer + BDbuffer_offset,
(void *)((uint8_t*)data + FIRST_SEG_TLV_HDR),
data_len - FIRST_SEG_TLV_HDR);
BDbuffer_offset += (data_len - FIRST_SEG_TLV_HDR);
break;
case SECOND_SEG:
memcpy(BDbuffer + BDbuffer_offset,
(void *)((uint8_t *)data + SECOND_SEG_TLV_HDR),
data_len - SECOND_SEG_TLV_HDR);
BDbuffer_offset += (data_len - SECOND_SEG_TLV_HDR);
break;
case THIRD_SEG:
memcpy(BDbuffer + BDbuffer_offset,
(void *)((uint8_t*)data + THIRD_SEG_TLV_HDR),
data_len - THIRD_SEG_TLV_HDR);
BDbuffer_offset += (data_len - THIRD_SEG_TLV_HDR);
break;
default:
/* error */
break;
}
/* In case of total bdf data size not being a multiple
* of 4k, extra remaining bdf data is handled based on
* which segment of 4k it belongs to.
*/
} else {
switch (sequence_id) {
case FIRST_SEG:
if (remaining_bytes < CALDATA_SIZE_FIRST_SEG) {
memcpy(BDbuffer + BDbuffer_offset,
data + FIRST_SEG_TLV_HDR,
remaining_bytes);
BDbuffer_offset += remaining_bytes;
} else {
memcpy(BDbuffer + BDbuffer_offset,
data + FIRST_SEG_TLV_HDR,
data_len - FIRST_SEG_TLV_HDR);
BDbuffer_offset += (data_len - FIRST_SEG_TLV_HDR);
remaining_bytes -= CALDATA_SIZE_FIRST_SEG;
}
break;
case SECOND_SEG:
if (remaining_bytes < CALDATA_SIZE_SECOND_SEG) {
memcpy(BDbuffer + BDbuffer_offset,
data + SECOND_SEG_TLV_HDR,
remaining_bytes);
BDbuffer_offset += remaining_bytes;
} else {
memcpy(BDbuffer + BDbuffer_offset,
data + SECOND_SEG_TLV_HDR,
data_len - SECOND_SEG_TLV_HDR);
BDbuffer_offset += (data_len - SECOND_SEG_TLV_HDR);
remaining_bytes -= CALDATA_SIZE_SECOND_SEG;
}
break;
case THIRD_SEG:
memcpy(BDbuffer + BDbuffer_offset,
(void *)((uint8_t*)data + THIRD_SEG_TLV_HDR),
remaining_bytes);
BDbuffer_offset += remaining_bytes;
break;
}
}
}
break;
}
case QC9887_DEVICE_ID:
case QC9888_DEVICE_ID:
{
if ((((uint8_t *)data)[BD_READ_CMD_ID_POS] == M_EEEPROM_BLOCK_READ_ID_QC98XX) &&
(((uint8_t *)data)[BD_READ_RESP_PARAM_POS] == BD_READ_RESP_PARAM)){
le_to_cpu32(((uint8_t *)data + QC98XX_BLOCK_SIZE_VAL),
legacy_dataSize);
DPRINTF(FTM_DBG_TRACE,
"Capturing Caldata for QC98xx by FTM :: Size %d\n",
legacy_dataSize);
DPRINTF(FTM_DBG_TRACE,
"BDbuffer Offset : %d \n",
(resp_counter * QC98XX_BLOCK_SIZE));
memcpy(BDbuffer + BDbuffer_offset, (void *)((uint8_t *)data +
QC98XX_BLOCK_START_POS),
legacy_dataSize);
resp_counter = resp_counter + 1;
BDbuffer_offset += legacy_dataSize;
}
break;
}
case QC99xx_DEVICE_ID:
{
if ((((uint8_t *)data)[BD_READ_CMD_ID_POS] == M_EEEPROM_BLOCK_READ_ID_LEGACY) &&
(((uint8_t *)data)[BD_READ_RESP_PARAM_POS] == BD_READ_RESP_PARAM) &&
((uint8_t *)data)[LEGACY_RADIO_PARAM_POS] < LEGACY_RADIO_PARAM_THRESHOLD) {
le_to_cpu16(((uint8_t *)data + LEGACY_BLOCK_SIZE_VAL), legacy_dataSize);
DPRINTF(FTM_DBG_TRACE,
"Capturing Caldata by FTM :: Size %d\n",
legacy_dataSize);
DPRINTF(FTM_DBG_TRACE,
"BDbuffer Offset : %d \n",
(resp_counter * BD_BLOCK_SIZE));
memcpy(BDbuffer + BDbuffer_offset,
(void *)((uint8_t *)data + LEGACY_BLOCK_START_POS),
legacy_dataSize);
resp_counter = resp_counter + 1;
BDbuffer_offset+=legacy_dataSize;
}
break;
}
}
}
#endif

159
feeds/wifi-ax/ftm/src/testcmd.h Executable file
View File

@@ -0,0 +1,159 @@
/*==========================================================================
TCMD header File
# Copyright (c) 2011, 2013-2014 by Qualcomm Technologies, Inc.
# All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
*/
/*
* Copyright (c) 2006 Atheros Communications Inc.
* All rights reserved.
*
*
// The software source and binaries included in this development package are
// licensed, not sold. You, or your company, received the package under one
// or more license agreements. The rights granted to you are specifically
// listed in these license agreement(s). All other rights remain with Atheros
// Communications, Inc., its subsidiaries, or the respective owner including
// those listed on the included copyright notices. Distribution of any
// portion of this package must be in strict compliance with the license
// agreement(s) terms.
// </copyright>
//
//
*
*/
#ifndef TESTCMD_H_
#define TESTCMD_H_
#include <stdint.h>
#ifdef AR6002_REV2
#define TCMD_MAX_RATES 12
#else
#define TCMD_MAX_RATES 28
#endif
#define PREPACK
#define POSTPACK __attribute__ ((packed))
#define ATH_MAC_LEN 6
#define TC_CMDS_SIZE_MAX 256
/* Continuous Rx
act: TCMD_CONT_RX_PROMIS - promiscuous mode (accept all incoming frames)
TCMD_CONT_RX_FILTER - filter mode (accept only frames with dest
address equal specified
mac address (set via act =3)
TCMD_CONT_RX_REPORT off mode (disable cont rx mode and get the
report from the last cont
Rx test)
TCMD_CONT_RX_SETMAC - set MacAddr mode (sets the MAC address for the
target. This Overrides
the default MAC address.)
*/
typedef enum {
TCMD_CONT_RX_PROMIS = 0,
TCMD_CONT_RX_FILTER,
TCMD_CONT_RX_REPORT,
TCMD_CONT_RX_SETMAC,
TCMD_CONT_RX_SET_ANT_SWITCH_TABLE,
TC_CMD_RESP,
TCMD_CONT_RX_GETMAC,
} TCMD_CONT_RX_ACT;
typedef PREPACK struct {
uint32_t testCmdId;
uint32_t act;
uint32_t enANI;
PREPACK union {
struct PREPACK TCMD_CONT_RX_PARA {
uint32_t freq;
uint32_t antenna;
uint32_t wlanMode;
} POSTPACK para;
struct PREPACK TCMD_CONT_RX_REPORT {
uint32_t totalPkt;
int32_t rssiInDBm;
uint32_t crcErrPkt;
uint32_t secErrPkt;
uint16_t rateCnt[TCMD_MAX_RATES];
uint16_t rateCntShortGuard[TCMD_MAX_RATES];
} POSTPACK report;
struct PREPACK TCMD_CONT_RX_MAC {
char addr[ATH_MAC_LEN];
char btaddr[ATH_MAC_LEN];
uint16_t regDmn[2];
uint32_t otpWriteFlag;
} POSTPACK mac;
struct PREPACK TCMD_CONT_RX_ANT_SWITCH_TABLE {
uint32_t antswitch1;
uint32_t antswitch2;
} POSTPACK antswitchtable;
} POSTPACK u;
} POSTPACK TCMD_CONT_RX;
typedef enum {
TC_CMDS_TS =0,
TC_CMDS_CAL,
TC_CMDS_TPCCAL = TC_CMDS_CAL,
TC_CMDS_TPCCAL_WITH_OTPWRITE,
TC_CMDS_OTPDUMP,
TC_CMDS_OTPSTREAMWRITE,
TC_CMDS_EFUSEDUMP,
TC_CMDS_EFUSEWRITE,
TC_CMDS_READTHERMAL,
} TC_CMDS_ACT;
typedef PREPACK struct {
uint32_t testCmdId;
uint32_t act;
PREPACK union {
uint32_t enANI; // to be identical to CONT_RX struct
struct PREPACK {
uint16_t length;
uint8_t version;
uint8_t bufLen;
} POSTPACK parm;
} POSTPACK u;
} POSTPACK TC_CMDS_HDR;
typedef PREPACK struct {
TC_CMDS_HDR hdr;
char buf[TC_CMDS_SIZE_MAX];
} POSTPACK TC_CMDS;
typedef enum {
TCMD_CONT_TX_ID,
TCMD_CONT_RX_ID,
TCMD_PM_ID,
TC_CMDS_ID,
TCMD_SET_REG_ID,
TC_CMD_TLV_ID,
OP_GENERIC_NART_CMD = 8,
/*For synergy purpose we added the following tcmd id but these
tcmd's will not go to the firmware instead we will write values
to the NV area */
TCMD_NIC_MAC = 100,
TCMD_CAL_FILE_INDEX = 101,
TCMD_LOAD_DRIVER = 102,
TCMD_SET_MAC_ADDR = 198,
} TCMD_ID;
#ifdef __cplusplus
}
#endif
#endif /* TESTCMD_H_ */

45
feeds/wifi-ax/ftm/src/wds/Android.mk Executable file
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@@ -0,0 +1,45 @@
ifeq ($(call is-vendor-board-platform,QCOM),true)
ifeq ($(findstring true, $(BOARD_HAVE_QCOM_FM) $(BOARD_HAVE_BLUETOOTH)),true)
LOCAL_PATH := $(call my-dir)
include $(CLEAR_VARS)
BDROID_DIR:= system/bt
ifeq ($(TARGET_SUPPORTS_WEARABLES),true)
QTI_DIR := hardware/qcom/bt/msm8909/libbt-vendor
else
QTI_DIR := hardware/qcom/bt/libbt-vendor
endif
LOCAL_C_INCLUDES := $(TARGET_OUT_HEADERS)/common/inc
LOCAL_C_INCLUDES += $(BDROID_DIR)/hci/include
LOCAL_C_INCLUDES += $(QTI_DIR)/include
ifeq ($(TARGET_SUPPORTS_WEARABLES),true)
LOCAL_C_INCLUDES += device/qcom/msm8909w/opensource/bluetooth/tools/hidl_client/inc
else
LOCAL_C_INCLUDES += vendor/qcom/opensource/bluetooth/tools/hidl_client/inc
endif
LOCAL_CFLAGS := -DANDROID
ifneq ($(BOARD_ANT_WIRELESS_DEVICE), )
LOCAL_CFLAGS += -DCONFIG_ANT
endif
LOCAL_SRC_FILES := wds_main.c
LOCAL_SRC_FILES += wds_hci_pfal_linux.c
LOCAL_MODULE_PATH := $(TARGET_OUT_VENDOR_EXECUTABLES)
LOCAL_MODULE := wdsdaemon
ifeq ($(PRODUCT_VENDOR_MOVE_ENABLED),true)
LOCAL_PROPRIETARY_MODULE := true
endif
LOCAL_MODULE_TAGS := optional
LOCAL_SHARED_LIBRARIES := libdiag
LOCAL_SHARED_LIBRARIES += libcutils \
libdl \
libbt-hidlclient
include $(BUILD_EXECUTABLE)
endif # filter
endif # is-vendor-board-platform

170
feeds/wifi-ax/ftm/src/wds/wds_hci_pfal.h Executable file
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/*
* Copyright (c) 2016 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* Copyright (c) 2012 by Qualcomm Atheros, Inc..
* All Rights Reserved.
* Qualcomm Atheros Confidential and Proprietary.
*/
#ifndef DEBUG
#define DEBUG printf
#endif
#ifndef ERROR
#define ERROR printf
#endif
#include "bt_vendor_qcom.h"
/* error codes */
enum {
STATUS_SUCCESS,
STATUS_ERROR,
STATUS_INVALID_LENGTH,
STATUS_NO_MEMORY,
STATUS_NULL_POINTER,
STATUS_CLIENT_ERROR,
};
enum {
RX_ERROR = -1,
RX_BT_EVT_IND = 1,
RX_BT_HDR,
RX_BT_DATA,
RX_ANT_HDR,
RX_ANT_DATA,
RX_FM_EVT_IND,
RX_FM_HDR,
RX_FM_DATA,
RX_PKT_IND
};
enum pkt_type {
BT_PKT_TYPE = 1,
FM_PKT_TYPE,
ANT_PKT_TYPE
};
/* device to communicate between PC and DUT */
#define BT_HS_NMEA_DEVICE "/dev/ttyGS0"
#define BT_HSLITE_UART_DEVICE "/dev/ttyHSL0"
/* interface between PC-DUT */
typedef struct pc_uart_interafce {
unsigned char *intf;
int uart_fd;
} pc_uart_interface;
typedef union pc_interface {
pc_uart_interface uart;
} pc_interface;
/* device to communicate between DUT and BTSOC */
#define APPS_RIVA_FM_CMD_CH "/dev/smd1"
#define APPS_RIVA_BT_ACL_CH "/dev/smd2"
#define APPS_RIVA_BT_CMD_CH "/dev/smd3"
#define APPS_RIVA_ANT_CMD "/dev/smd5"
#define APPS_RIVA_ANT_DATA "/dev/smd6"
#define BT_HS_UART_DEVICE "/dev/ttyHS0"
/* SMD interface between DUT-SOC */
typedef struct soc_smd_interface {
unsigned char *fm_cmd;
unsigned char *bt_acl;
unsigned char *bt_cmd;
unsigned char *ant_cmd;
unsigned char *ant_data;
int fm_cmd_fd;
int bt_acl_fd;
int bt_cmd_fd;
int ant_cmd_fd;
int ant_data_fd;
} soc_smd_interface;
/* UART interface between DUT-SOC */
typedef struct soc_uart_interface {
unsigned char *intf;
int uart_fd;
} soc_uart_interface;
typedef union soc_interface {
soc_smd_interface smd;
soc_uart_interface uart;
} soc_interface;
/* context for wdsdaemon */
typedef struct wdsdaemon {
int mode;
int soc_type;
bool pcinit_mask;
pc_interface pc_if;
soc_interface soc_if;
bool is_server_enabled;
int server_socket_fd;
pthread_t soc_rthread;
} wdsdaemon;
/* packet types */
#define PACKET_TYPE_INVALID (0)
#define PACKET_TYPE_BT_CMD (1)
#define PACKET_TYPE_FM_CMD (2)
#define PACKET_TYPE_BT_ACL (3)
#define PACKET_TYPE_ANT_CMD (4)
#define PACKET_TYPE_ANT_DATA (5)
/* operation modes for wdsdaemon */
#define MODE_BT_SMD (0)
#define MODE_FM_SMD (1)
#define MODE_ANT_SMD (2)
#define MODE_ALL_SMD (3)
#define MODE_BT_UART (4)
#define MODE_ANT_UART (5)
#define MODE_FM_UART (6)
/* Bluetooth Header */
#define BT_CMD_PKT_HDR_LEN (2)
#define BT_EVT_PKT_HDR_LEN (2)
#define BT_FM_PKT_UART_HDR_LEN (4)
#define BT_ACL_PKT_HDR_LEN (4)
#define BT_ACL_PKT_UART_HDR_LEN (5)
/* FM Header */
#define FM_CMD_PKT_HDR_LEN (3) //Opcode(2byte) + Param len(1 byte)
#define FM_EVT_PKT_HDR_LEN (2) //Opcode(1 byte) + Param len(1 byte)
/* ANT Header */
#define ANT_CMD_PKT_HDR_LEN (1)
#define ANT_DATA_PKT_HDR_LEN (1)
#define ANT_CMD_DATA_PKT_UART_HDR_LEN (2)
#define BT_EVT_PKT_HDR_LEN_UART (BT_CMD_PKT_HDR_LEN+1)
#define BT_ACL_PKT_HDR_LEN_UART (BT_ACL_PKT_HDR_LEN+1)
/* ANT data packet type */
#define ANT_DATA_TYPE_BROADCAST (0x4E)
#define ANT_DATA_TYPE_ACKNOWLEDGED (0x4F)
#define ANT_DATA_TYPE_BURST (0x50)
#define ANT_DATA_TYPE_ADV_BURST (0x72)
/*Packet Identifiers */
#define BT_CMD_PKT_ID 0x01
#define FM_CMD_PKT_ID 0x11
#define BT_EVT_PKT_ID 0x04
#define FM_EVT_PKT_ID 0x14
#define ANT_CMD_PKT_ID 0x0C
#define ANT_EVT_PKT_ID 0x0C
#define ANT_DATA_PKT_ID 0x0E
#define BT_ACL_DATA_PKT_ID 0x02
#define SMD_BUF_SIZE (9000)
#define UART_BUF_SIZE (9000)
#define PC_TO_SOC (1)
#define SOC_TO_PC (2)
int get_acl_pkt_length(unsigned char, unsigned char);
unsigned short get_pkt_data_len(unsigned char type, unsigned char *buf);
int init_pc_interface(wdsdaemon *wds);
int init_soc_interface(wdsdaemon *wds);
int establish_server_socket(wdsdaemon *wds);

720
feeds/wifi-ax/ftm/src/wds/wds_hci_pfal_linux.c Executable file
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@@ -0,0 +1,720 @@
/*
* Copyright (c) 2016 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* Copyright (c) 2012 by Qualcomm Atheros, Inc..
* All Rights Reserved.
* Qualcomm Atheros Confidential and Proprietary.
*/
#include <errno.h>
#include <fcntl.h>
#include <sys/ioctl.h>
#include <sys/socket.h>
#include <cutils/sockets.h>
#include <sys/un.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <stdlib.h>
#include <sys/select.h>
#include <termios.h>
#include <pthread.h>
#include <stdio.h>
#include "wds_hci_pfal.h"
#include <math.h>
#include <dlfcn.h>
#include <unistd.h>
#include <string.h>
#include "hidl_client.h"
#ifdef ANDROID
#include "bt_vendor_lib.h"
#else
#ifdef BT_SOC_TYPE_ROME
#include "bt_vendor_lib.h"
#endif
#endif
#define SOCKET_NAME "wdssock"
typedef unsigned char uint8;
extern int process_packet_type(wdsdaemon *wds, unsigned char pkt_id,
int *dst_fd, int *len, int dir);
#ifdef ANDROID
extern int soc_type;
#endif
static int find_max(int *arr, int len)
{
int max = arr[0];
int i;
for (i = 1; i < len; i++) {
if (arr[i] > max)
max = arr[i];
}
return max;
}
unsigned short get_pkt_data_len(unsigned char type,
unsigned char *buf)
{
unsigned short len = 0;
switch (type) {
case BT_EVT_PKT_ID:
/* Event packet: 1 byte length */
len = buf[BT_EVT_PKT_HDR_LEN_UART - 1];
break;
case BT_ACL_DATA_PKT_ID:
/* ACL packet: 2 byte length */
len =
(((unsigned short) buf[BT_ACL_PKT_HDR_LEN_UART - 1] << 8) &
0xFF00) | (((unsigned short) buf[BT_ACL_PKT_HDR_LEN_UART - 2])
& 0x00FF);
break;
case BT_CMD_PKT_ID:
len = buf[BT_EVT_PKT_HDR_LEN_UART];
break;
case FM_CMD_PKT_ID:
/* FM Cmd packet param len: 1 byte length */
len = buf[FM_CMD_PKT_HDR_LEN];
break;
case FM_EVT_PKT_ID:
/* FM Evt packet param len: 1 byte length */
len = buf[FM_EVT_PKT_HDR_LEN];
break;
}
return len;
}
static int process_soc_data_to_pc(wdsdaemon *wds, unsigned char *buf_in,
int src_fd)
{
int retval = STATUS_SUCCESS;
ssize_t n_bytes = 0, n_total = 0;
int len = 1, dst_fd = 0, i;
int state = RX_PKT_IND, offset = 0;
unsigned char pkt_ind_to_read = 1;
/* In case of Pronto, we have different channels for CMD and ACL,
* so we don't get packet indicator from SoC.
* Below condition will skip reading packet indicator byte in
* case of Pronto.
*/
if (wds->mode != MODE_BT_UART && wds->mode != MODE_ANT_UART &&
wds->mode != MODE_FM_UART) {
pkt_ind_to_read = 0;
offset++;
}
do {
while (len) {
if (pkt_ind_to_read == 0)
goto dont_read_pkt_ind;
if ((n_bytes = read(src_fd,
(unsigned char *)(&buf_in[offset + n_total]),
len)) > 0) {
n_total += n_bytes;
len -= n_bytes;
if (len)
continue;
dont_read_pkt_ind:
switch(state) {
case RX_PKT_IND:
pkt_ind_to_read = 1;
state = process_packet_type(wds, buf_in[0], &dst_fd, &len,
SOC_TO_PC);
break;
case RX_BT_HDR:
len = get_pkt_data_len(buf_in[0], buf_in);
state = RX_BT_DATA;
break;
case RX_BT_DATA:
len = 0;
break;
case RX_ANT_HDR:
pkt_ind_to_read = 1;
len = buf_in[n_total];
state = RX_ANT_DATA;
break;
case RX_ANT_DATA:
if (buf_in[2] ==
ANT_DATA_TYPE_BROADCAST ||
buf_in[2] ==
ANT_DATA_TYPE_ACKNOWLEDGED ||
buf_in[2] == ANT_DATA_TYPE_BURST ||
buf_in[2] == ANT_DATA_TYPE_ADV_BURST)
buf_in[0] = ANT_DATA_PKT_ID;
else
buf_in[0] = ANT_EVT_PKT_ID;
retval = STATUS_SUCCESS;
break;
case RX_FM_HDR:
len = get_pkt_data_len(buf_in[0], buf_in);
state = RX_FM_DATA;
break;
case RX_FM_DATA:
len = 0;
break;
default:
retval = STATUS_ERROR;
break;
}
} else {
ERROR("%s Failed To read from SoC fd = %d\n",__func__, src_fd);
break;
}
}
if (retval)
break;
n_total += offset;
len = 0;
DEBUG("evt:\t");
for (i = 0; i < n_total; i++)
DEBUG("0x%x\t", buf_in[i]);
DEBUG("\n");
while (n_total) {
if((n_bytes = write(dst_fd, buf_in + len, n_total)) >= 0) {
len += n_bytes;
n_total -= n_bytes;
}
else {
if (wds->is_server_enabled) {
retval = STATUS_CLIENT_ERROR;
ERROR("%s: unable to write to client socket, fd = %d err = %s\n", __func__, dst_fd, strerror(errno));
}
else {
retval = STATUS_ERROR;
ERROR("%s: unable to write to pc_if fd = %d err = %s\n", __func__, dst_fd, strerror(errno));
}
break;
}
}
} while (0);
return retval;
}
static void *process_soc_data(void *arg)
{
int retval = STATUS_ERROR;
fd_set readfds, saved_readfds;
wdsdaemon *wds = (wdsdaemon *) arg;
int max, src_fd = 0, dst_fd = 0;
size_t sz = 0;
unsigned char *buf_in = NULL;
int arr[5], num = 0;
FD_ZERO(&readfds);
FD_ZERO(&saved_readfds);
if (wds->mode == MODE_BT_UART || wds->mode == MODE_ANT_UART ||
wds->mode == MODE_FM_UART) {
FD_SET(wds->soc_if.uart.uart_fd, &saved_readfds);
max = wds->soc_if.uart.uart_fd;
sz = UART_BUF_SIZE * sizeof(unsigned char);
} else {
if (wds->mode == MODE_BT_SMD || wds->mode == MODE_ALL_SMD) {
FD_SET((arr[num] = wds->soc_if.smd.bt_acl_fd), &saved_readfds);num++;
FD_SET((arr[num] = wds->soc_if.smd.bt_cmd_fd), &saved_readfds);num++;
}
if (wds->mode == MODE_ANT_SMD || wds->mode == MODE_ALL_SMD) {
FD_SET((arr[num] = wds->soc_if.smd.ant_cmd_fd), &saved_readfds);num++;
FD_SET((arr[num] = wds->soc_if.smd.ant_data_fd), &saved_readfds);num++;
}
if (wds->mode == MODE_FM_SMD || wds->mode == MODE_ALL_SMD)
FD_SET((arr[num] = wds->soc_if.smd.fm_cmd_fd), &saved_readfds);num++;
max = find_max(arr, num);
sz = SMD_BUF_SIZE * sizeof(unsigned char);
}
buf_in = (unsigned char *) calloc(sz, 1);
if (!buf_in) {
ERROR("Insufficient Memory");
retval = STATUS_NO_MEMORY;
goto failed;
}
do {
readfds = saved_readfds;
retval = select(max + 1, &readfds, NULL, NULL, NULL);
if (retval == -1) {
ERROR("select failed, Error: %s (%d)\n", strerror(errno),
errno);
break;
}
switch (wds->mode) {
case MODE_BT_UART:
case MODE_FM_UART:
case MODE_ANT_UART:
src_fd = wds->soc_if.uart.uart_fd;
if (FD_ISSET(src_fd,&readfds))
retval = process_soc_data_to_pc(wds, buf_in, src_fd);
break;
case MODE_ALL_SMD:
case MODE_BT_SMD:
src_fd = wds->soc_if.smd.bt_cmd_fd;
if (FD_ISSET(src_fd ,&readfds)) {
buf_in[0] = BT_EVT_PKT_ID;
retval = process_soc_data_to_pc(wds, buf_in,src_fd);
}
src_fd = wds->soc_if.smd.bt_acl_fd;
if (FD_ISSET(src_fd ,&readfds)) {
buf_in[0] = BT_ACL_DATA_PKT_ID;
retval = process_soc_data_to_pc(wds, buf_in, src_fd);
}
if (wds->mode == MODE_BT_SMD)
break;
case MODE_FM_SMD:
src_fd = wds->soc_if.smd.fm_cmd_fd;
if (FD_ISSET(src_fd ,&readfds)) {
buf_in[0] = FM_EVT_PKT_ID;
retval = process_soc_data_to_pc(wds, buf_in, src_fd);
}
if (wds->mode == MODE_FM_SMD)
break;
break;
case MODE_ANT_SMD:
src_fd = wds->soc_if.smd.ant_cmd_fd;
if (FD_ISSET(src_fd, &readfds)) {
buf_in[0] = ANT_EVT_PKT_ID;
retval = process_soc_data_to_pc(wds, buf_in, src_fd);
}
src_fd = wds->soc_if.smd.ant_data_fd;
if (FD_ISSET(src_fd ,&readfds)) {
buf_in[0] = ANT_DATA_PKT_ID;
retval = process_soc_data_to_pc(wds, buf_in, src_fd);
}
break;
}
if (STATUS_SUCCESS != retval) {
if (retval == STATUS_CLIENT_ERROR) {
ERROR("Write to client failed\n");
continue;
}
ERROR("Failed to process SOC data\n");
break;
}
} while(1);
failed:
ERROR("\nReader thread exited\n");
if (buf_in) {
free(buf_in);
buf_in = NULL;
}
return 0;
}
static int set_port_raw_mode(int fd)
{
struct termios term;
int ret = STATUS_SUCCESS;
if (tcgetattr(fd, &term) < 0) {
ERROR("Failed to get attributes");
ERROR("Error: %s (%d)", strerror(errno), errno);
return STATUS_ERROR;
}
cfmakeraw(&term);
if (tcsetattr(fd, TCSANOW, &term) < 0) {
ERROR("Failed to set attributes");
ERROR("Error: %s (%d)", strerror(errno), errno);
return STATUS_ERROR;
}
if (tcflush(fd, TCIFLUSH) < 0) {
ERROR("Failed to flush port");
ERROR("Error: %s (%d)", strerror(errno), errno);
return STATUS_ERROR;
}
return ret;
}
/*===========================================================================
FUNCTION port_init_libbt
DESCRIPTION
Initilize port and open the file through libbt-vendor
DEPENDENCIES
NIL
RETURN VALUE
RETURN fd handle
SIDE EFFECTS
None
===========================================================================*/
#ifndef BT_BLUEZ
static int port_init_libbt(uint8 option)
{
int fd_array[CH_MAX];
bt_vendor_callbacks_t cb;
uint8_t init_bd_addr[6] = { 0x00, 0x00, 0x00, 0x00, 0x00, 0x01 };
bt_vendor_interface_t * p_btf = NULL;
bt_vendor_opcode_t opCmd1, opCmd2;
int iState;
void* vendor_handle = dlopen("libbt-vendor.so", RTLD_NOW);
if(!vendor_handle){
ERROR("Error open libbt-vendor \n");
return -1;
}
p_btf = (bt_vendor_interface_t *)dlsym(vendor_handle,
"BLUETOOTH_VENDOR_LIB_INTERFACE");
if(!p_btf){
ERROR("Failed obtain the address of libbt-vendor \n");
return -1;
}
if (p_btf->init(&cb, &init_bd_addr[0]) < 0){
ERROR("bt vendor init failed \n");
return -1;
}
switch (option) {
case MODE_BT_UART:
opCmd1 = BT_VND_OP_POWER_CTRL;
opCmd2 = BT_VND_OP_USERIAL_OPEN;
break;
case MODE_FM_UART:
opCmd1 = FM_VND_OP_POWER_CTRL;
opCmd2 = BT_VND_OP_FM_USERIAL_OPEN;
break;
case MODE_ANT_UART:
opCmd1 = BT_VND_OP_POWER_CTRL;
opCmd2 = BT_VND_OP_USERIAL_OPEN;
break;
default:
printf("Invalid option\n");
return -1;
}
iState = BT_VND_PWR_ON;
if (p_btf->op(opCmd1, &iState) < 0){
ERROR("Power on failed \n");
return -1;
}
if (p_btf->op(opCmd2, (void*)fd_array) < 0){
ERROR("op(VND_OP_USERIAL_OPEN) failed \n");
return -1;
}
return fd_array[0];
}
#endif
static int change_baud(int fd, speed_t baud)
{
struct termios term;
int ret = STATUS_SUCCESS; /* assume success */
do {
if (tcgetattr(fd, &term) < 0) {
ERROR("Failed to get attributes");
ret = STATUS_ERROR;
break;
}
cfsetospeed(&term, baud);
/* don't change speed until last write done */
if (tcsetattr(fd, TCSADRAIN, &term) < 0) {
ERROR("Failed to set attribute");
ERROR("Error: %s (%d)", strerror(errno), errno);
ret = STATUS_ERROR;
break;
}
} while(0);
return 0;
}
int init_soc_interface(wdsdaemon *wds)
{
int ret = STATUS_ERROR;
int fd = 0;
struct termios term;
if (!wds) {
ret = STATUS_NULL_POINTER;
ERROR("Invalid input argument\n");
return ret;
}
switch (wds->mode) {
case MODE_FM_UART:
if(hidl_client_initialize(MODE_FM,&fd) == false)
{
ERROR("HIDL client initialization failed");
exit(1);
}
wds->soc_if.uart.uart_fd = fd;
ret = STATUS_SUCCESS;
break;
case MODE_BT_UART:
#ifdef BT_BLUEZ
fd = open(wds->soc_if.uart.intf,
O_RDWR | O_NONBLOCK | O_NOCTTY);
if (-1 == fd) {
ERROR("Failed to open port: %s\n",
wds->soc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
break;
}
if (tcflush(fd, TCIOFLUSH) < 0) {
ERROR("Failed to flush port: %s\n",
wds->soc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
close(fd);
break;
}
if (tcgetattr(fd, &term) < 0) {
ERROR("Failed to get attributes for port: %s\n",
wds->soc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
close(fd);
break;
}
cfmakeraw(&term);
/* enable flow control */
term.c_cflag |= (CRTSCTS | CLOCAL);
if (tcsetattr(fd, TCSANOW, &term) < 0) {
ERROR("Failed to set attributes for port: %s\n",
wds->soc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
close(fd);
break;
}
if (STATUS_SUCCESS != change_baud(fd, B3000000)) { //TODO:set baud rate
ERROR("Failed to change baud rate\n");
close(fd);
break;
}
#else
if(hidl_client_initialize(MODE_BT,&fd) == false)
{
ERROR("HIDL client initialization failed");
exit(1);
}
#endif
/* everything okay */
wds->soc_if.uart.uart_fd = fd;
ret = STATUS_SUCCESS;
break;
case MODE_ANT_UART:
#ifndef BT_BLUEZ
if(hidl_client_initialize(MODE_ANT,&fd) == true){
wds->soc_if.uart.uart_fd = fd;
}
else {
ERROR("HIDL client initialization failed, opening port with port_init_libbt\n");
wds->soc_if.uart.uart_fd = port_init_libbt(wds->mode);
}
ret = STATUS_SUCCESS;
#endif
break;
case MODE_ALL_SMD:
case MODE_ANT_SMD:
/* ANT commdnas */
fd = open(wds->soc_if.smd.ant_cmd,
O_RDWR | O_NONBLOCK | O_NOCTTY);
if (-1 == fd) {
ERROR("Failed to open port: %s\n",
wds->soc_if.smd.ant_cmd);
ERROR("Error: %s (%d)\n", strerror(errno),
errno);
break;
}
set_port_raw_mode(fd);
wds->soc_if.smd.ant_cmd_fd = fd;
/* ANT data */
fd = open(wds->soc_if.smd.ant_data,
O_RDWR | O_NONBLOCK | O_NOCTTY);
if (-1 == fd) {
ERROR("Failed to open port: %s\n",
wds->soc_if.smd.ant_data);
ERROR("Error: %s (%d)", strerror(errno),
errno);
break;
}
set_port_raw_mode(fd);
wds->soc_if.smd.ant_data_fd = fd;
if (wds->mode == MODE_ANT_SMD) {
ret = STATUS_SUCCESS;
break;
}
/* fallthrough intentional for MODE_ALL_SMD */
case MODE_BT_SMD:
/* BT commdnas */
fd = open(wds->soc_if.smd.bt_cmd,
O_RDWR | O_NONBLOCK | O_NOCTTY);
if (-1 == fd) {
ERROR("Failed to open port: %s\n",
wds->soc_if.smd.bt_cmd_fd);
ERROR("Error: %s (%d)\n",
strerror(errno), errno);
break;
}
set_port_raw_mode(fd);
wds->soc_if.smd.bt_cmd_fd = fd;
/* BT ACL */
fd = open(wds->soc_if.smd.bt_acl,
O_RDWR | O_NONBLOCK | O_NOCTTY);
if (-1 == fd) {
ERROR("Failed to open port: %s\n",
wds->soc_if.smd.bt_acl);
ERROR("Error: %s (%d)\n",
strerror(errno), errno);
break;
}
set_port_raw_mode(fd);
wds->soc_if.smd.bt_acl_fd = fd;
if (wds->mode == MODE_BT_SMD) {
ret = STATUS_SUCCESS;
break;
}
/* fallthrough intentional for MODE_ALL_SMD */
case MODE_FM_SMD:
/* FM commdnas */
fd = open(wds->soc_if.smd.fm_cmd, O_RDWR | O_NONBLOCK | O_NOCTTY);
if (-1 == fd) {
ERROR("Failed to open port: %s\n",
wds->soc_if.smd.fm_cmd_fd);
ERROR("Error: %s (%d)\n",
strerror(errno), errno);
break;
}
set_port_raw_mode(fd);
wds->soc_if.smd.fm_cmd_fd = fd;
ret = STATUS_SUCCESS;
break;
}
if (ret == STATUS_SUCCESS)
if (pthread_create(&wds->soc_rthread, NULL, process_soc_data,
wds) != 0) {
ERROR("%s:Unable to create pthread err = %s\n", __func__,
strerror(errno));
close(fd);
ret = STATUS_ERROR;
}
failed:
return ret;
}
int init_pc_interface(wdsdaemon *wds)
{
int fd = 0;
int ret = STATUS_ERROR;
struct termios term;
if (!wds) {
ret = STATUS_NULL_POINTER;
ERROR("Invalid input argument");
return ret;
}
do {
fd = open(wds->pc_if.uart.intf, O_RDWR);
if (-1 == fd) {
ERROR("Unable to open port: %s", wds->pc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
ret = STATUS_ERROR;
break;
}
/* set terminal properties */
if (tcgetattr(fd, &term) < 0) {
ERROR("Failed to get attributes of port: %s",
wds->pc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
close(fd);
ret = STATUS_ERROR;
break;
}
cfmakeraw(&term);
term.c_lflag = term.c_lflag & ((tcflag_t)(~ECHO));
/* TODO: Make baud rate command line argument */
cfsetospeed(&term, B115200);
cfsetispeed(&term, B115200);
if (tcsetattr(fd, TCSANOW, &term) < 0) {
ERROR("Failed to set attributes of port: %s",
wds->pc_if.uart.intf);
ERROR("Error: %s (%d)", strerror(errno), errno);
close(fd);
ret = STATUS_ERROR;
break;
}
tcflush(fd, TCIOFLUSH);
/* everything okay, set success */
wds->pc_if.uart.uart_fd = fd;
ret = STATUS_SUCCESS;
} while(0);
return ret;
}
int establish_server_socket(wdsdaemon *wds)
{
int fd = -1;
struct sockaddr_un client_address;
socklen_t clen;
int sock_id, ret = STATUS_ERROR;
DEBUG("%s(%s) Entry \n", __func__, SOCKET_NAME);
if (!wds) {
ret = STATUS_NULL_POINTER;
ERROR("Invalid input argument\n");
return ret;
}
sock_id = socket(AF_LOCAL, SOCK_STREAM, 0);
if (sock_id < 0) {
ERROR("%s: server Socket creation failure\n", __func__);
return ret;
}
DEBUG("convert name to android abstract name:%s %d\n", SOCKET_NAME, sock_id);
if (socket_local_server_bind(sock_id,
SOCKET_NAME, ANDROID_SOCKET_NAMESPACE_ABSTRACT) >= 0) {
if (listen(sock_id, 5) == 0) {
DEBUG("listen to local socket:%s, fd:%d\n", SOCKET_NAME, sock_id);
} else {
ERROR("listen to local socket:failed\n");
close(sock_id);
return ret;
}
} else {
close(sock_id);
ERROR("%s: server bind failed for socket : %s\n", __func__, SOCKET_NAME);
return ret;
}
clen = sizeof(client_address);
DEBUG("%s: before accept_server_socket\n", SOCKET_NAME);
fd = accept(sock_id, (struct sockaddr *)&client_address, &clen);
if (fd > 0) {
DEBUG("%s accepted fd:%d for server fd:%d\n", SOCKET_NAME, fd, sock_id);
close(sock_id);
wds->server_socket_fd = fd;
return STATUS_SUCCESS;
} else {
ERROR("Accept failed fd:%d sock d:%d error %s\n", fd, sock_id, strerror(errno));
close(sock_id);
return ret;
}
}

568
feeds/wifi-ax/ftm/src/wds/wds_main.c Executable file
View File

@@ -0,0 +1,568 @@
/*
* Copyright (c) 2016 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* Copyright (c) 2012 by Qualcomm Atheros, Inc..
* All Rights Reserved.
* Qualcomm Atheros Confidential and Proprietary.
*/
/*
* Description:
* Added wdsdaemon to enable testing of Host Controller Interface (HCI)
* communication with stack layers bypassed.
* 1. Acts as a communication bridge between PC to DUT over UART (/dev/ttyHSL0)
* and also UART transport between DUT and BTSOC (/dev/ttyHS0).
* 2. Used to test exchange of BT-FM HCI commands, events and ACL data packets
* between host and controller.
**/
#include <stdio.h>
#include <unistd.h>
#include <pthread.h>
#include <stdbool.h>
#include <errno.h>
#include <fcntl.h>
#include <sys/ioctl.h>
#include <sys/socket.h>
#include <cutils/sockets.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <sys/time.h>
#include <stdlib.h>
#include <sys/time.h>
#include <getopt.h>
#include <strings.h>
#include <termios.h>
#include <math.h>
#include <string.h>
#include <signal.h>
#include "wds_hci_pfal.h"
#include "hidl_client.h"
#ifdef ANDROID
#include <cutils/properties.h>
#endif
/*===========================================================================
FUNCTION get_pkt_type
DESCRIPTION
Routine to get the packet type from the data bytes received
DEPENDENCIES
NIL
RETURN VALUE
Packet type for the data bytes received
SIDE EFFECTS
None
===========================================================================*/
static int get_packet_type(unsigned char id)
{
int type;
switch (id) {
case BT_CMD_PKT_ID:
type = PACKET_TYPE_BT_CMD;
break;
case FM_CMD_PKT_ID:
type = PACKET_TYPE_FM_CMD;
break;
case BT_ACL_DATA_PKT_ID:
type = PACKET_TYPE_BT_ACL;
break;
case ANT_CMD_PKT_ID:
type = PACKET_TYPE_ANT_CMD;
break;
case ANT_DATA_PKT_ID:
type = PACKET_TYPE_ANT_DATA;
break;
default:
type = PACKET_TYPE_INVALID;
}
return type;
}
#ifdef ANDROID
int soc_type;
/** Get Bluetooth SoC type from system setting */
static int get_bt_soc_type()
{
int ret = 0;
char bt_soc_type[PROPERTY_VALUE_MAX];
DEBUG("bt-hci: get_bt_soc_type\n");
ret = property_get("qcom.bluetooth.soc", bt_soc_type, NULL);
if (ret != 0) {
DEBUG("qcom.bluetooth.soc set to %s\n", bt_soc_type);
if (!strncasecmp(bt_soc_type, "rome", sizeof("rome"))) {
return BT_SOC_ROME;
}
else if (!strncasecmp(bt_soc_type, "cherokee", sizeof("cherokee"))) {
return BT_SOC_CHEROKEE;
}
else if (!strncasecmp(bt_soc_type, "ath3k", sizeof("ath3k"))) {
return BT_SOC_AR3K;
}
else if (!strncasecmp(bt_soc_type, "napier", sizeof("napier"))) {
return BT_SOC_NAPIER;
}
else {
DEBUG("qcom.bluetooth.soc not set, so using default.\n");
return BT_SOC_DEFAULT;
}
}
else {
DEBUG("%s: Failed to get soc type\n", __FUNCTION__);
ret = BT_SOC_DEFAULT;
}
return ret;
}
#endif
static int parse_options(wdsdaemon *wds, int argc, char *argv[])
{
int ret = STATUS_SUCCESS;
int opt;
if (argc > 2) {
ERROR("Invalid number of arguments\n");
ret = STATUS_INVALID_LENGTH;
ERROR("Usage %s [-abfunht]", argv[0]);
return ret;
}
if (argc == 1) {
wds->mode = MODE_ALL_SMD;
return ret;
}
while ((opt = getopt(argc, argv, "abfunhstm")) != -1) {
switch (opt) {
case 'a':
DEBUG("Opening ANT SMD channels\n");
wds->mode = MODE_ANT_SMD;
break;
case 'b':
DEBUG("Opening BT SMD channels\n");
wds->mode = MODE_BT_SMD;
break;
case 'f':
DEBUG("Opening FM SMD channels\n");
wds->mode = MODE_FM_SMD;
break;
case 't':
ERROR("Setting mask for pc initialization\n");
wds->pcinit_mask = true;
break;
case 's':
ERROR("Opening WDS server socket\n");
wds->is_server_enabled = true;
wds->pcinit_mask = true;
break;
#ifdef ANDROID
if (soc_type == BT_SOC_ROME || soc_type == BT_SOC_CHEROKEE) {
case 'u':
DEBUG("Opening UART BT Channel\n");
wds->mode = MODE_BT_UART;
break;
}
if (soc_type == BT_SOC_CHEROKEE) {
case 'm':
DEBUG("Opening UART FM Channel\n");
wds->mode = MODE_FM_UART;
break;
}
#else
#ifdef BT_SOC_TYPE_ROME
case 'u':
DEBUG("Opening UART BT Channel\n");
wds->mode = MODE_BT_UART;
break;
#endif
#endif
#ifdef CONFIG_ANT
case 'n':
ERROR("Opening ANT UART channels\n");
wds->mode = MODE_ANT_UART;
break;
#endif
case 'h':
DEBUG("By Default, it will open all SMD channels\n");
DEBUG("Use -a for opening only ANT Channels\n");
DEBUG("Use -b for opening only BT Channels\n");
DEBUG("Use -f for opening only FM Channels\n");
#ifdef ANDROID
if (soc_type == BT_SOC_ROME || soc_type == BT_SOC_CHEROKEE) {
DEBUG("Use -u for opening only UART Channel for BT (ROME)\n");
}
if (soc_type == BT_SOC_CHEROKEE) {
DEBUG("Use -m for opening only UART Channel for FM\n");
}
#else
#ifdef BT_SOC_TYPE_ROME
DEBUG("Use -u for opening only UART Channel for BT (ROME)\n");
#endif
#endif
#ifdef CONFIG_ANT
DEBUG("Use -n for opening ANT UART channels only\n");
#endif
DEBUG("Use -t for masking pc initialization\n");
DEBUG("Use -s for setting communication via server socket\n");
DEBUG("Use -h to print help\n");
ret = STATUS_ERROR;
break;
default:
DEBUG("Usage %s [-abfunhmst]\n", argv[0]);
ret = STATUS_ERROR;
break;
}
}
return ret;
}
static void wdsdaemon_init(wdsdaemon *wds)
{
/* PC-DUT interface */
#ifdef BT_BLUEZ
wds->pc_if.uart.intf = (unsigned char *)BT_HSLITE_UART_DEVICE;
#else
wds->pc_if.uart.intf = (unsigned char *)BT_HS_NMEA_DEVICE;
#endif
/* DUT-BTSOC interface */
switch (wds->mode) {
case MODE_ALL_SMD:
wds->soc_if.smd.fm_cmd = (unsigned char *)APPS_RIVA_FM_CMD_CH;
wds->soc_if.smd.bt_acl = (unsigned char*)APPS_RIVA_BT_ACL_CH;
wds->soc_if.smd.bt_cmd = (unsigned char *)APPS_RIVA_BT_CMD_CH;
wds->soc_if.smd.ant_cmd = (unsigned char *)APPS_RIVA_ANT_CMD;
wds->soc_if.smd.ant_data = (unsigned char *)APPS_RIVA_ANT_DATA;
break;
case MODE_ANT_SMD:
wds->soc_if.smd.ant_cmd = (unsigned char *)APPS_RIVA_ANT_CMD;
wds->soc_if.smd.ant_data = (unsigned char *)APPS_RIVA_ANT_DATA;
break;
case MODE_BT_SMD:
wds->soc_if.smd.bt_acl = (unsigned char *)APPS_RIVA_BT_ACL_CH;
wds->soc_if.smd.bt_cmd = (unsigned char *)APPS_RIVA_BT_CMD_CH;
break;
case MODE_FM_SMD:
wds->soc_if.smd.fm_cmd = (unsigned char *)APPS_RIVA_FM_CMD_CH;
break;
case MODE_BT_UART:
case MODE_ANT_UART:
wds->soc_if.uart.intf = (unsigned char *)BT_HS_UART_DEVICE;
break;
}
}
int process_packet_type(wdsdaemon *wds, unsigned char pkt_id,
int *dst_fd, int *len, int dir)
{
int state;
switch(pkt_id) {
case BT_CMD_PKT_ID:
*len = BT_EVT_PKT_HDR_LEN_UART;
case BT_EVT_PKT_ID:
case BT_ACL_DATA_PKT_ID:
state = RX_BT_HDR;
if (wds->mode == MODE_BT_UART)
*dst_fd = wds->soc_if.uart.uart_fd;
else
if (pkt_id == BT_CMD_PKT_ID)
*dst_fd = wds->soc_if.smd.bt_cmd_fd;
else
*dst_fd = wds->soc_if.smd.bt_acl_fd;
if (pkt_id == BT_ACL_DATA_PKT_ID)
*len = BT_ACL_PKT_HDR_LEN;
else if (pkt_id == BT_EVT_PKT_ID)
*len = BT_EVT_PKT_HDR_LEN;
break;
case FM_CMD_PKT_ID:
if (wds-> mode == MODE_FM_UART)
*dst_fd = wds->soc_if.uart.uart_fd;
else
*dst_fd = wds->soc_if.smd.fm_cmd_fd;
case FM_EVT_PKT_ID:
state = RX_FM_HDR;
if (pkt_id == FM_CMD_PKT_ID)
*len = FM_CMD_PKT_HDR_LEN;
else if (pkt_id == FM_EVT_PKT_ID)
*len = FM_EVT_PKT_HDR_LEN;
break;
case ANT_CMD_PKT_ID:
case ANT_DATA_PKT_ID:
state = RX_ANT_HDR;
if (wds->mode == MODE_ANT_UART)
*dst_fd = wds->soc_if.uart.uart_fd;
else
if (pkt_id == ANT_CMD_PKT_ID)
*dst_fd = wds->soc_if.smd.ant_cmd_fd;
else
*dst_fd = wds->soc_if.smd.ant_data_fd;
break;
default:
state = RX_ERROR;
break;
}
if (dir == SOC_TO_PC) {
if (wds->is_server_enabled)
*dst_fd = wds->server_socket_fd;
else
*dst_fd = wds->pc_if.uart.uart_fd;
}
return state;
}
static int process_pc_data_to_soc(wdsdaemon *wds, unsigned char *buf, int src_fd)
{
int retval = STATUS_SUCCESS;
int len = 1, n_bytes = 0, n_total = 0;
int pkt_id = 0, dst_fd = 0;
int state = RX_PKT_IND, i;
do {
if ((n_bytes = read(src_fd, (unsigned char *)&buf[n_total], len)) > 0) {
n_total += n_bytes;
len -= n_bytes;
if (len)
continue;
switch(state) {
case RX_PKT_IND:
pkt_id = buf[0];
state = process_packet_type(wds, pkt_id, &dst_fd, &len,
PC_TO_SOC);
break;
case RX_BT_HDR:
len = get_pkt_data_len(pkt_id, buf);
state = RX_BT_DATA;
break;
case RX_ANT_HDR:
len = buf[0];
state = RX_ANT_DATA;
break;
case RX_FM_HDR:
len = get_pkt_data_len(pkt_id, buf);
state = RX_FM_DATA;
break;
case RX_BT_DATA:
case RX_ANT_DATA:
case RX_FM_DATA:
len = 0;
break;
default:
retval = STATUS_ERROR;
break;
}
} else {
ERROR("%s: error while reading from fd = %d err = %s\n",
__func__, src_fd, strerror(errno));
if (n_bytes < 0)
ERROR("%s:read returns err: %d\n", __func__,n_bytes);
if (n_bytes == 0)
ERROR("%s: This indicates the close of other end\n", __func__);
retval = STATUS_ERROR;
break;
}
} while (len);
if(retval)
goto fail;
/* In case of Pronto, for BT, we have different channels for CMD and ACL,
* so we don't send packet indicator to SoC.
* Below condition will skip the packet indicator byte to Soc in\
* case of Pronto.
*/
if (wds->mode != MODE_BT_UART && wds->mode != MODE_ANT_UART &&
wds->mode != MODE_FM_UART) {
n_total -= 1;
len = 1;
}
while(n_total) {
if((n_bytes = write(dst_fd, buf + len, n_total)) > 0) {
len += n_bytes;
n_total -= n_bytes;
} else
ERROR("%s :Error while writeto fd = %d err = %s\n",
__func__, dst_fd, strerror(errno));
break;
}
DEBUG("cmd:\t");
for (i = 0; i < len; i++)
DEBUG("0x%x\t", buf[i]);
DEBUG("\n");
if (n_total)
retval = STATUS_ERROR;
fail:
return retval;
}
static void thread_exit_handler(int signo){
DEBUG("%s: %d",__func__,signo);
}
int server_create(wdsdaemon *wds,int *src_fd) {
int retval = establish_server_socket(wds);
if (STATUS_SUCCESS == retval)
*src_fd = wds->server_socket_fd;
else
ERROR("Failed to init server socket\n");
return retval;
}
int main(int argc, char *argv[])
{
int retval = STATUS_ERROR, src_fd = 0;
fd_set readfds;
wdsdaemon wds;
unsigned char *buf = NULL;
size_t size = UART_BUF_SIZE;
struct sigaction action;
sigset_t sigmask, emptymask;
sigemptyset(&sigmask);
sigaddset(&sigmask, SIGINT);
sigaddset(&sigmask, SIGPIPE);
if (sigprocmask(SIG_BLOCK, &sigmask, NULL) == -1) {
ERROR("failed to sigprocmask");
}
memset(&action, 0, sizeof(struct sigaction));
sigemptyset(&action.sa_mask);
action.sa_flags = 0;
action.sa_handler = thread_exit_handler;
sigemptyset(&emptymask);
if (sigaction(SIGINT, &action, NULL) < 0) {
ERROR("%s:sigaction failed\n", __func__);
}
memset(&wds, 0, sizeof(wdsdaemon));
#ifdef ANDROID
soc_type = get_bt_soc_type();
#endif
/* parse options */
retval = parse_options(&wds, argc, argv);
if (STATUS_SUCCESS != retval) {
goto fail;
}
wdsdaemon_init(&wds);
if(!(wds.pcinit_mask))
{
retval = init_pc_interface(&wds);
if (STATUS_SUCCESS != retval) {
ERROR("Failed to init DUT-PC interface\n");
goto fail;
}
src_fd = wds.pc_if.uart.uart_fd;
}
retval = init_soc_interface(&wds);
if (STATUS_SUCCESS != retval) {
ERROR("Failed to init DUT-BTSOC interface\n");
goto fail;
}
#ifdef BT_BLUEZ
fflush(stdout);
fflush(stderr);
#endif
buf = (unsigned char *)calloc(size, 1);
if (!buf) {
ERROR("%s:Unable to allocate memory\n", __func__);
goto fail;
}
if( wds.is_server_enabled && ( server_create(&wds, &src_fd)!= STATUS_SUCCESS ))
goto fail;
do {
FD_ZERO(&readfds);
FD_SET(src_fd, &readfds);
DEBUG("Waiting for data:\n");
if ((retval = select(src_fd + 1, &readfds, NULL, NULL, NULL)) == -1) {
ERROR("%s:select failed\n", __func__);
if (wds.is_server_enabled)
{
ERROR("%s:closing the server socket and reopening\n", __func__);
close(src_fd);
if(server_create(&wds, &src_fd)== STATUS_SUCCESS)
continue;
}
break;
}
if (FD_ISSET(src_fd, &readfds)) {
retval = process_pc_data_to_soc(&wds, buf, src_fd);
} else
ERROR("%s:src_fd port not set\n",__func__);
if (retval != STATUS_SUCCESS) {
ERROR("%s: Error while processing Data to SoC err = %d\n", __func__, retval);
if (wds.is_server_enabled)
{
ERROR("%s:closing the server socket and reopening\n", __func__);
close(src_fd);
if(server_create(&wds, &src_fd)== STATUS_SUCCESS)
continue;
}
break;
}
}while(1);
fail:
if (buf)
free(buf);
shutdown(src_fd, SHUT_RDWR);
switch (wds.mode) {
case MODE_BT_UART:
case MODE_FM_UART:
case MODE_ANT_UART:
shutdown(wds.soc_if.uart.uart_fd, SHUT_RDWR);
break;
case MODE_ALL_SMD:
case MODE_BT_SMD:
shutdown(wds.soc_if.smd.bt_cmd_fd, SHUT_RDWR);
shutdown(wds.soc_if.smd.bt_acl_fd, SHUT_RDWR);
if(wds.mode == MODE_BT_SMD)
break;
case MODE_FM_SMD:
shutdown(wds.soc_if.smd.fm_cmd_fd, SHUT_RDWR);
if (wds.mode == MODE_FM_SMD)
break;
case MODE_ANT_SMD:
shutdown(wds.soc_if.smd.ant_cmd_fd, SHUT_RDWR);
shutdown(wds.soc_if.smd.ant_data_fd, SHUT_RDWR);
break;
}
pthread_join(wds.soc_rthread, NULL);
hidl_client_close();
return retval;
}

54
feeds/wifi-ax/libtcmd/Makefile Executable file
View File

@@ -0,0 +1,54 @@
include $(TOPDIR)/rules.mk
PKG:=libtcmd
PKG_NAME:=$(PKG)
PKG_RELEASE:=1
PKG_VERSION:=11.5
include $(INCLUDE_DIR)/package.mk
define Package/$(PKG_NAME)
SECTION:=QCA
CATEGORY:=QCA
URL:=http://www.qca.qualcomm.com
MAINTAINER:=Qualcomm Atheros
TITLE:= QCA libtcmd utils
DEPENDS:= @TARGET_ipq_ipq807x||TARGET_ipq_ipq807x_64||TARGET_ipq_ipq60xx||TARGET_ipq_ipq60xx_64||TARGET_ipq_ipq50xx||TARGET_ipq_ipq50xx_64||TARGET_ipq807x||TARGET_ipq50xx||TARGET_ipq60xx||TARGET_ipq95xx +libpthread +libnl
endef
define Package/$(PKG_NAME)/description/Default
LIBTCMD Package Support for QCA WIFI 11 drivers
endef
TARGET_CFLAGS += -I$(STAGING_DIR)/usr/include \
-I$(STAGING_DIR)/usr/include/libnl3 \
-I$(STAGING_DIR)/include \
-fPIC -DWLAN_API_NL80211 -DLIBNL_2 -DWIN_AP_HOST
TARGET_LDFLAGS += -lnl-3 -lnl-genl-3 -shared
ifneq ($(CONFIG_PACKAGE_kmod-ath11k),)
TARGET_CFLAGS+=-DWIN_AP_HOST_OPEN=1
endif
define Build/Compile
$(MAKE) -C $(PKG_BUILD_DIR) \
CC="$(TARGET_CC)" \
CFLAGS="$(TARGET_CFLAGS)" \
LDFLAGS="$(TARGET_LDFLAGS)"
endef
define Build/InstallDev
$(INSTALL_DIR) $(1)/usr/include/ $(1)/usr/lib/
$(CP) $(PKG_BUILD_DIR)/*.h $(1)/usr/include/
$(CP) $(PKG_BUILD_DIR)/libtcmd.so $(1)/usr/lib/
endef
define Package/$(PKG_NAME)/install
$(INSTALL_DIR) $(1)/usr/lib
$(INSTALL_BIN) $(PKG_BUILD_DIR)/libtcmd.so $(1)/usr/lib/
endef
$(eval $(call BuildPackage,libtcmd))

54
feeds/wifi-ax/libtcmd/src/Android.mk Executable file
View File

@@ -0,0 +1,54 @@
LOCAL_PATH:=$(call my-dir)
include $(CLEAR_VARS)
LOCAL_MODULE := libtcmd_headers
LOCAL_CFLAGS := -Werror
LOCAL_EXPORT_C_INCLUDE_DIRS := $(LOCAL_PATH)
LOCAL_PROPRIETARY_MODULE := true
include $(BUILD_HEADER_LIBRARY)
# Build libtcmd =========================
include $(CLEAR_VARS)
LOCAL_CLANG := true
LOCAL_MODULE := libtcmd
LOCAL_SRC_FILES:= \
nl80211.c \
libtcmd.c \
os.c
ifeq ($(PRODUCT_VENDOR_MOVE_ENABLED), true)
LOCAL_PROPRIETARY_MODULE := true
endif
ifeq ($(BOARD_HAS_ATH_WLAN_AR6004),true)
LOCAL_CFLAGS+= -DCONFIG_AR6002_REV6
endif
ifneq ($(wildcard external/libnl-headers),)
LOCAL_C_INCLUDES += external/libnl-headers
else
LOCAL_C_INCLUDES += external/libnl/include external/libnl/include/linux-private
endif
LOCAL_C_INCLUDES += $(TARGET_OUT_INTERMEDIATES)/KERNEL_OBJ/usr/include
LOCAL_ADDITIONAL_DEPENDENCIES := $(TARGET_OUT_INTERMEDIATES)/KERNEL_OBJ/usr
LOCAL_CFLAGS += \
-DWLAN_API_NL80211 \
-DANDROID \
-DLIBNL_2 \
-DSYSCONFDIR="\"/etc/libnl\""\
-Werror
ifneq ($(wildcard system/core/libnl_2),)
# ICS ships with libnl 2.0
LOCAL_SHARED_LIBRARIES := libnl_2
else
LOCAL_SHARED_LIBRARIES := libnl
endif
LOCAL_MODULE_OWNER := qcom
LOCAL_SANITIZE := signed-integer-overflow unsigned-integer-overflow
include $(BUILD_STATIC_LIBRARY)

24
feeds/wifi-ax/libtcmd/src/Makefile Executable file
View File

@@ -0,0 +1,24 @@
#CC := $(ATH_CROSS_COMPILE_TYPE)gcc
CC = gcc
CFLAGS += -DWLAN_API_NL80211 -DLIBNL_2
LDFLAGS += -shared
TARGET_LIB = libtcmd.so
SRCS = os.c nl80211.c libtcmd.c
OBJS = $(SRCS:.c=.o)
.PHONY=: all
all: ${TARGET_LIB}
$(TARGET_LIB): $(OBJS)
$(CC) ${LDFLAGS} -o $@ $^
$(SRCS:.c=.d):%.d:%.c
$(CC) $(CFLAGS) -MM $< >$@
.PHONY: clean
clean:
rm -f ${TARGET_LIB} ${OBJS}

23
feeds/wifi-ax/libtcmd/src/Makefile.am Executable file
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@@ -0,0 +1,23 @@
AM_CFLAGS = -Wall \
-g -O0 \
-DLIBNL_2 \
-DWLAN_API_NL80211 \
$(LIBNL_CFLAGS)
if USE_GLIB
AM_CFLAGS += -DUSE_GLIB $(GLIB_CFLAGS)
endif
if MDM_SET
AM_CFLAGS += -DMDM
endif
c_sources = os.c \
nl80211.c \
libtcmd.c
AM_CFLAGS += -DWLAN_API_NL80211
lib_LIBRARIES = libtcmd.a
libtcmd_a_SOURCES = $(c_sources)
libtcmd_a_LDFLAGS = -static
pkginclude_HEADERS = libtcmd.h

132
feeds/wifi-ax/libtcmd/src/libtcmd.c Executable file
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@@ -0,0 +1,132 @@
/*
* Copyright (c) 2019 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
/*
* 2011-2012, 2016 Qualcomm Atheros Inc. All Rights Reserved.
* Qualcomm Atheros Proprietary and Confidential.
*/
#include "string.h"
#include "libtcmd.h"
#include "os.h"
#ifdef USE_GLIB
#include <glib.h>
#define strlcat g_strlcat
#define strlcpy g_strlcpy
#endif
int tcmd_tx(void *buf, int len, bool resp)
{
int err = 0;
/* XXX: just call nl80211 directly for now */
#ifdef WLAN_API_NL80211
err = nl80211_tcmd_tx(&tcmd_cfg, buf, len);
if (err)
goto err_out;
#endif
if (resp)
#ifdef WLAN_API_NL80211
err = nl80211_tcmd_rx(&tcmd_cfg);
#endif
return err;
err_out:
A_DBG("tcmd_tx failed: %s\n", strerror(-err));
return err;
}
static void tcmd_expire(union sigval sig)
{
/* tcmd expired, do something */
A_DBG("timer expired %d\n",sig.sival_int);
tcmd_cfg.timeout = true;
}
#ifdef CONFIG_AR6002_REV6
int tcmd_tx_init(char *iface, void (*rx_cb)(void *buf, int len))
{
int err;
strlcpy(tcmd_cfg.iface, iface, sizeof(tcmd_cfg.iface));
tcmd_cfg.rx_cb = rx_cb;
tcmd_cfg.sev.sigev_notify = SIGEV_THREAD;
tcmd_cfg.sev.sigev_notify_function = tcmd_expire;
timer_create(CLOCK_REALTIME, &tcmd_cfg.sev, &tcmd_cfg.timer);
#ifdef WLAN_API_NL80211
err = nl80211_init(&tcmd_cfg);
if (err) {
A_DBG("couldn't init nl80211!: %s\n", strerror(-err));
return err;
}
#endif
return 0;
}
#else
/* get driver ep from tcmd ep */
static int tcmd_set_ep(uint32_t *driv_ep, enum tcmd_ep ep)
{
#ifdef WLAN_API_NL80211
return nl80211_set_ep(driv_ep, ep);
#endif
}
void tcmd_response_cb(void *buf, int len)
{
tcmd_cfg.timeout = true;
tcmd_reset_timer(&tcmd_cfg);
tcmd_cfg.docommand_rx_cb(buf, len);
}
int tcmd_init(char *iface, void (*rx_cb)(void *buf, int len), ...)
{
int err;
enum tcmd_ep ep;
va_list ap;
va_start(ap, rx_cb);
ep = va_arg(ap, enum tcmd_ep);
va_end(ap);
strlcpy(tcmd_cfg.iface, iface, sizeof(tcmd_cfg.iface));
tcmd_cfg.docommand_rx_cb = rx_cb;
tcmd_cfg.rx_cb = tcmd_response_cb;
err = tcmd_set_ep(&tcmd_cfg.ep, ep);
if (err)
return err;
tcmd_cfg.sev.sigev_notify = SIGEV_THREAD;
tcmd_cfg.sev.sigev_notify_function = tcmd_expire;
timer_create(CLOCK_REALTIME, &tcmd_cfg.sev, &tcmd_cfg.timer);
#ifdef WLAN_API_NL80211
err = nl80211_init(&tcmd_cfg);
if (err) {
A_DBG("couldn't init nl80211!: %s\n", strerror(-err));
return err;
}
#endif
return 0;
}
int tcmd_tx_start( void )
{
return nl80211_tcmd_start(&tcmd_cfg);
}
int tcmd_tx_stop( void )
{
return nl80211_tcmd_stop(&tcmd_cfg);
}
int tcmd_tx_init(char *iface, void (*rx_cb)(void *buf, int len))
{
return tcmd_init(iface, rx_cb, TCMD_EP_TCMD);
}
#endif

95
feeds/wifi-ax/libtcmd/src/libtcmd.h Executable file
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@@ -0,0 +1,95 @@
/*
* Copyright (c) 2011-2012, 2020 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* 2011-2012 Qualcomm Atheros Inc. All Rights Reserved.
* Qualcomm Atheros Proprietary and Confidential.
*/
#ifndef _LIBTCMD_H_
#define _LIBTCMD_H_
#include <errno.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <getopt.h>
#include <stdint.h>
#include <stdbool.h>
#include <sys/types.h>
#include <sys/stat.h>
#include <fcntl.h>
#include <unistd.h>
#include <net/if.h>
#include <signal.h>
#include <time.h>
#ifndef CONFIG_AR6002_REV6
#include <stdarg.h>
#endif
#define A_ERR(ret, args...) { \
printf(args); \
exit(ret); \
}
#define A_DBG printf
#ifdef WIN_AP_HOST
/* In 6GHz the channel list is larger,
* it can potentially take 60s or more so
* increasing timeout.
*/
#define TCMD_TIMEOUT 70 /* s */
#else
#define TCMD_TIMEOUT 16 /* s */
#endif
#define UNUSED(x) (void)(x)
#ifndef CONFIG_AR6002_REV6
enum tcmd_ep {
TCMD_EP_TCMD,
TCMD_EP_WMI,
};
#endif
struct tcmd_cfg {
char iface[100];
void (*rx_cb)(void *buf, int len);
void (*docommand_rx_cb)(void *buf, int len);
#ifndef CONFIG_AR6002_REV6
uint32_t ep;
#endif
#ifdef WLAN_API_NL80211
/* XXX: eventually default to libnl-2.0 API */
#ifdef LIBNL_2
#define nl_handle nl_sock
#endif
struct nl_handle *nl_handle;
int nl_id;
#endif
struct sigevent sev;
timer_t timer;
bool timeout;
} tcmd_cfg;
/* WLAN API */
#ifdef WLAN_API_NL80211
#include "nl80211_drv.h"
#endif
/* send tcmd in buffer buf of length len. resp == true if a response by the FW
* is required. Returns: 0 on success, -ETIMEOUT on timeout
*/
int tcmd_tx(void *buf, int len, bool resp);
/* Initialize tcmd transport layer on given iface. Call given rx_cb on tcmd
* response */
int tcmd_tx_init(char *iface, void (*rx_cb)(void *buf, int len));
#ifndef CONFIG_AR6002_REV6
/* same as above, but takes optional testmode endpoint (e.g. WMI vs. TCMD) */
int tcmd_init(char *iface, void (*rx_cb)(void *buf, int len), ...);
#endif
int tcmd_tx_start( void );
int tcmd_tx_stop( void );
#endif /* _LIBTCMD_H_ */

563
feeds/wifi-ax/libtcmd/src/nl80211.c Executable file
View File

@@ -0,0 +1,563 @@
/*
* Copyright (c) 2011-2012, 2016-2018, 2021 Qualcomm Technologies Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* 2011-2012, 2016 Qualcomm Atheros Inc.
* All rights reserved.
*
* $ATH_LICENSE_HOSTSDK0_C$
*
* nl80211 code from iw and hwsim tool by Johannes Berg
* http://git.sipsolutions.net/?p=iw.git;a=summary
* http://git.sipsolutions.net/?p=hwsim.git;a=summary
*/
#include "libtcmd.h"
#include "os.h"
#ifdef WIN_AP_HOST
#include <netlink/handlers.h>
#include <linux/genetlink.h>
#include <linux/nl80211.h>
#include <linux/errno.h>
#endif
int cb_ret;
#ifdef LIBNL_2
static inline struct nl_sock *nl_handle_alloc(void)
{
return nl_socket_alloc();
}
static inline void nl_handle_destroy(struct nl_handle *h)
{
nl_socket_free(h);
}
#define nl_disable_sequence_check nl_socket_disable_seq_check
#endif
/* copied from ath6kl */
enum ar6k_testmode_attr {
__AR6K_TM_ATTR_INVALID = 0,
AR6K_TM_ATTR_CMD = 1,
AR6K_TM_ATTR_DATA = 2,
AR6K_TM_ATTR_STREAM_ID = 3,
/* keep last */
__AR6K_TM_ATTR_AFTER_LAST,
AR6K_TM_ATTR_MAX = __AR6K_TM_ATTR_AFTER_LAST - 1
};
#ifdef WIN_AP_HOST_OPEN
enum ar6k_testmode_cmd {
AR6K_TM_CMD_VERSION = 0,
AR6K_TM_CMD_START = 1,
AR6K_TM_CMD_STOP = 2,
AR6K_TM_CMD_WMI_CMD = 3,
AR6K_TM_CMD_TCMD = 4,
};
#else
enum ar6k_testmode_cmd {
AR6K_TM_CMD_TCMD = 0,
AR6K_TM_CMD_START = 1,
AR6K_TM_CMD_STOP = 2,
#ifndef CONFIG_AR6002_REV6
AR6K_TM_CMD_WMI_CMD = 0xF000,
#endif
};
#endif
static int error_handler(struct sockaddr_nl *nla, struct nlmsgerr *err,
void *arg)
{
int *ret = arg;
*ret = err->error;
UNUSED(nla);
return NL_STOP;
}
static int finish_handler(struct nl_msg *msg, void *arg)
{
int *ret = arg;
*ret = 0;
UNUSED(msg);
return NL_SKIP;
}
static int ack_handler(struct nl_msg *msg, void *arg)
{
int *ret = arg;
*ret = 0;
UNUSED(msg);
return NL_STOP;
}
#ifdef ANDROID
#ifndef in_addr_t
typedef uint32_t in_addr_t;
#endif
#include "netlink-private/genl.h"
/* android's libnl_2 does not include this, define it here */
static int android_genl_ctrl_resolve(struct nl_handle *handle,
const char *name)
{
/*
* Android ICS has very minimal genl_ctrl_resolve() implementation, so
* need to work around that.
*/
struct nl_cache *cache = NULL;
struct genl_family *nl80211 = NULL;
int id = -1;
if (genl_ctrl_alloc_cache(handle, &cache) < 0) {
A_DBG("nl80211: Failed to allocate generic "
"netlink cache");
goto fail;
}
nl80211 = genl_ctrl_search_by_name(cache, name);
if (nl80211 == NULL)
goto fail;
id = genl_family_get_id(nl80211);
fail:
if (nl80211)
genl_family_put(nl80211);
if (cache)
nl_cache_free(cache);
return id;
}
#define genl_ctrl_resolve android_genl_ctrl_resolve
#define nl_socket_get_cb nl_sk_get_cb
struct nl_cb *nl_socket_get_cb(const struct nl_sock *sk)
{
return nl_cb_get(sk->s_cb);
}
#define nl_socket_enable_msg_peek nl_sk_enable_msg_peek
void nl_socket_enable_msg_peek(struct nl_sock *sk)
{
sk->s_flags |= NL_MSG_PEEK;
}
#define nl_socket_set_nonblocking nl_sk_set_nb
int nl_socket_set_nonblocking(const struct nl_sock *sk)
{
fcntl(sk->s_fd, F_SETFL, O_NONBLOCK);
return 0;
}
static int seq_ok(struct nl_msg *msg, void *arg)
{
UNUSED(msg);
UNUSED(arg);
return NL_OK;
}
#define nl_socket_disable_seq_check disable_seq_check
static inline void disable_seq_check(struct nl_handle *handle)
{
nl_cb_set(nl_socket_get_cb(handle), NL_CB_SEQ_CHECK,
NL_CB_CUSTOM, seq_ok, NULL);
}
#endif
struct handler_args {
const char *group;
int id;
};
static int family_handler(struct nl_msg *msg, void *arg)
{
struct handler_args *grp = arg;
struct nlattr *tb[CTRL_ATTR_MAX + 1];
struct genlmsghdr *gnlh = nlmsg_data(nlmsg_hdr(msg));
struct nlattr *mcgrp;
int rem_mcgrp;
nla_parse(tb, CTRL_ATTR_MAX, genlmsg_attrdata(gnlh, 0),
genlmsg_attrlen(gnlh, 0), NULL);
if (!tb[CTRL_ATTR_MCAST_GROUPS])
return NL_SKIP;
nla_for_each_nested(mcgrp, tb[CTRL_ATTR_MCAST_GROUPS], rem_mcgrp) {
struct nlattr *tb_mcgrp[CTRL_ATTR_MCAST_GRP_MAX + 1];
nla_parse(tb_mcgrp, CTRL_ATTR_MCAST_GRP_MAX,
nla_data(mcgrp), nla_len(mcgrp), NULL);
if (!tb_mcgrp[CTRL_ATTR_MCAST_GRP_NAME] ||
!tb_mcgrp[CTRL_ATTR_MCAST_GRP_ID])
continue;
else
grp->id = nla_get_u32(tb_mcgrp[CTRL_ATTR_MCAST_GRP_ID]);
if (strncmp(nla_data(tb_mcgrp[CTRL_ATTR_MCAST_GRP_NAME]),
grp->group,
nla_len(tb_mcgrp[CTRL_ATTR_MCAST_GRP_NAME])))
continue;
grp->id = nla_get_u32(tb_mcgrp[CTRL_ATTR_MCAST_GRP_ID]);
break;
}
return NL_SKIP;
}
int nl_get_multicast_id(struct nl_handle *sock, const char *family,
const char *group)
{
struct nl_msg *msg;
struct nl_cb *cb;
int ret, ctrlid;
struct handler_args grp = {
.group = group,
.id = -ENOENT,
};
msg = nlmsg_alloc();
if (!msg)
return -ENOMEM;
cb = nl_cb_alloc(NL_CB_DEFAULT);
if (!cb) {
ret = -ENOMEM;
goto out_fail_cb;
}
ctrlid = genl_ctrl_resolve(sock, "nlctrl");
#ifdef ANDROID
genlmsg_put(msg, NL_AUTO_PID, NL_AUTO_SEQ, GENL_ID_CTRL, 0, 0,
CTRL_CMD_GETFAMILY, 1);
#else
genlmsg_put(msg, 0, 0, ctrlid, 0, 0, CTRL_CMD_GETFAMILY, 0);
#endif
ret = -ENOBUFS;
NLA_PUT_STRING(msg, CTRL_ATTR_FAMILY_NAME, family);
ret = nl_send_auto_complete(sock, msg);
if (ret < 0)
goto out;
ret = 1;
nl_cb_err(cb, NL_CB_CUSTOM, error_handler, &ret);
nl_cb_set(cb, NL_CB_ACK, NL_CB_CUSTOM, ack_handler, &ret);
nl_cb_set(cb, NL_CB_FINISH, NL_CB_CUSTOM, finish_handler, &ret);
nl_cb_set(cb, NL_CB_VALID, NL_CB_CUSTOM, family_handler, &grp);
while (ret > 0)
nl_recvmsgs(sock, cb);
if (ret == 0)
ret = grp.id;
nla_put_failure:
out:
nl_cb_put(cb);
out_fail_cb:
nlmsg_free(msg);
return ret;
}
#ifndef CONFIG_AR6002_REV6
int nl80211_set_ep(uint32_t *driv_ep, enum tcmd_ep ep)
{
switch (ep) {
case TCMD_EP_TCMD:
*driv_ep = AR6K_TM_CMD_TCMD;
break;
case TCMD_EP_WMI:
*driv_ep = AR6K_TM_CMD_WMI_CMD;
break;
default:
fprintf(stderr, "nl80211: unknown ep!");
return -1;
}
return 0;
}
#endif
/* tcmd rx_cb wrapper to "unpack" the nl80211 msg and call the "real" cb */
int nl80211_rx_cb(struct nl_msg *msg, void *arg)
{
struct nlattr *tb[NL80211_ATTR_MAX + 1];
struct genlmsghdr *gnlh = nlmsg_data(nlmsg_hdr(msg));
struct nlattr *td[AR6K_TM_ATTR_MAX + 1];
void *buf;
int len;
UNUSED(arg);
#ifndef WIN_AP_HOST
A_DBG("nl80211: cb wrapper called\n");
#endif
nla_parse(tb, NL80211_ATTR_MAX, genlmsg_attrdata(gnlh, 0),
genlmsg_attrlen(gnlh, 0), NULL);
if (!tb[NL80211_ATTR_TESTDATA] || !tb[NL80211_ATTR_WIPHY]) {
printf("no data!\n");
return NL_SKIP;
}
nla_parse(td, AR6K_TM_ATTR_MAX, nla_data(tb[NL80211_ATTR_TESTDATA]),
nla_len(tb[NL80211_ATTR_TESTDATA]), NULL);
if (!td[AR6K_TM_ATTR_DATA]) {
#ifndef WIN_AP_HOST_OPEN
printf("no data in reply\n");
#endif
return NL_SKIP;
}
buf = nla_data(td[AR6K_TM_ATTR_DATA]);
len = nla_len(td[AR6K_TM_ATTR_DATA]);
#ifndef WIN_AP_HOST
A_DBG("nl80211: resp received, calling custom cb\n");
#endif
tcmd_cfg.rx_cb(buf, len);
/* trip waiting thread */
tcmd_cfg.timeout = true;
return NL_SKIP;
}
int nl80211_init(struct tcmd_cfg *cfg)
{
struct nl_cb *cb;
int err;
#ifdef WIN_AP_HOST_OPEN
int opt;
#endif
if(cfg->nl_handle)
nl_handle_destroy(cfg->nl_handle);
cfg->nl_handle = nl_handle_alloc();
if (!cfg->nl_handle) {
A_DBG("Failed to allocate netlink socket.\n");
return -ENOMEM;
}
if (genl_connect(cfg->nl_handle)) {
A_DBG("Failed to connect to generic netlink.\n");
err = -ENOLINK;
goto out_handle_destroy;
}
cfg->nl_id = genl_ctrl_resolve(cfg->nl_handle, "nl80211");
if (cfg->nl_id < 0) {
A_DBG("nl80211 not found.\n");
err = -ENOENT;
goto out_handle_destroy;
}
/* replace this with genl_ctrl_resolve_grp() once we move to libnl3 */
err = nl_get_multicast_id(cfg->nl_handle, "nl80211", "testmode");
if (err >= 0) {
err = nl_socket_add_membership(cfg->nl_handle, err);
if (err) {
A_DBG("failed to join testmode group!\n");
goto out_handle_destroy;
}
} else
goto out_handle_destroy;
/*
* Enable peek mode so drivers can send large amounts
* of data in blobs without problems.
*/
nl_socket_enable_msg_peek(cfg->nl_handle);
/*
* disable sequence checking to handle events.
*/
nl_disable_sequence_check(cfg->nl_handle);
cb = nl_socket_get_cb(cfg->nl_handle);
#ifdef ANDROID
/* libnl_2 does not provide default handlers */
nl_cb_err(cb, NL_CB_CUSTOM, error_handler, &cb_ret);
nl_cb_set(cb, NL_CB_ACK, NL_CB_CUSTOM, ack_handler, &cb_ret);
nl_cb_set(cb, NL_CB_FINISH, NL_CB_CUSTOM, finish_handler, &cb_ret);
#endif
nl_cb_set(cb, NL_CB_VALID, NL_CB_CUSTOM, nl80211_rx_cb, NULL);
/* so we can handle timeouts properly */
nl_socket_set_nonblocking(cfg->nl_handle);
#ifdef WIN_AP_HOST_OPEN
/* nobuf errors are useful for identifying lost packets and doing a
* resync. Such handling is not performed by libtcmd since we
* do a synchronous recv after performing a tx. Since
* we are listening in multicast socket and we recv/process the
* data only when do a tx, there are chances we receive overrun
* or ENOBUF errors which affects our data recv and better to
* avoid them
*/
opt = 1;
setsockopt(nl_socket_get_fd(cfg->nl_handle), SOL_NETLINK,
NETLINK_NO_ENOBUFS, &opt, sizeof(opt));
#endif
return 0;
out_handle_destroy:
nl_handle_destroy(cfg->nl_handle);
return err;
}
int nl80211_tcmd_connect(struct tcmd_cfg *cfg, enum ar6k_testmode_cmd cmd )
{
struct nl_msg *msg;
struct nlattr *nest;
int devidx, err = 0;
/* CHANGE HERE: you may need to allocate larger messages! */
msg = nlmsg_alloc();
if (!msg) {
A_DBG("failed to allocate netlink message\n");
return 2;
}
genlmsg_put(msg, 0, 0, cfg->nl_id, 0,
0, NL80211_CMD_TESTMODE, 0);
devidx = if_nametoindex(cfg->iface);
if (devidx) {
NLA_PUT_U32(msg, NL80211_ATTR_IFINDEX, devidx);
} else {
A_DBG("Device not found\n");
err = -ENOENT;
goto out_free_msg;
}
nest = nla_nest_start(msg, NL80211_ATTR_TESTDATA);
if (!nest) {
A_DBG("failed to nest\n");
err = -1;
goto out_free_msg;
}
NLA_PUT_U32(msg, AR6K_TM_ATTR_CMD, cmd);
nla_nest_end(msg, nest);
#ifndef WIN_AP_HOST
A_DBG("nl80211: sending message\n");
#endif
nl_send_auto_complete(cfg->nl_handle, msg);
out_free_msg:
nlmsg_free(msg);
return err;
nla_put_failure:
nlmsg_free(msg);
A_DBG("building message failed\n");
return 2;
}
int nl80211_tcmd_start(struct tcmd_cfg *cfg)
{
return nl80211_tcmd_connect(cfg, AR6K_TM_CMD_START);
}
int nl80211_tcmd_stop(struct tcmd_cfg *cfg)
{
return nl80211_tcmd_connect(cfg,AR6K_TM_CMD_STOP);
}
int nl80211_tcmd_tx(struct tcmd_cfg *cfg, void *buf, int len)
{
struct nl_msg *msg;
struct nlattr *nest;
int devidx, err = 0;
/* CHANGE HERE: you may need to allocate larger messages! */
msg = nlmsg_alloc();
if (!msg) {
A_DBG("failed to allocate netlink message\n");
return 2;
}
genlmsg_put(msg, 0, 0, cfg->nl_id, 0,
0, NL80211_CMD_TESTMODE, 0);
devidx = if_nametoindex(cfg->iface);
if (devidx) {
NLA_PUT_U32(msg, NL80211_ATTR_IFINDEX, devidx);
} else {
A_DBG("Device not found\n");
err = -ENOENT;
goto out_free_msg;
}
nest = nla_nest_start(msg, NL80211_ATTR_TESTDATA);
if (!nest) {
A_DBG("failed to nest\n");
err = -1;
goto out_free_msg;
}
#ifdef CONFIG_AR6002_REV6
NLA_PUT_U32(msg, AR6K_TM_ATTR_CMD, AR6K_TM_CMD_TCMD);
#else
NLA_PUT_U32(msg, AR6K_TM_ATTR_CMD, cfg->ep);
#endif
NLA_PUT(msg, AR6K_TM_ATTR_DATA, len, buf);
nla_nest_end(msg, nest);
#ifndef WIN_AP_HOST
A_DBG("nl80211: sending message\n");
#endif
nl_send_auto_complete(cfg->nl_handle, msg);
out_free_msg:
nlmsg_free(msg);
return err;
nla_put_failure:
nlmsg_free(msg);
A_DBG("building message failed\n");
return 2;
}
int nl80211_tcmd_rx(struct tcmd_cfg *cfg)
{
struct nl_cb *cb;
int err = 0;
cb = nl_socket_get_cb(cfg->nl_handle);
if (!cb) {
fprintf(stderr, "failed to allocate netlink callbacks\n");
err = 2;
goto out;
}
err = tcmd_set_timer(cfg);
if (err)
goto out;
#ifndef WIN_AP_HOST
A_DBG("nl80211: waiting for response\n");
#endif
while (!cfg->timeout)
nl_recvmsgs(cfg->nl_handle, cb);
if (!cfg->timeout)
return tcmd_reset_timer(cfg);
else
return 0;
out:
return err;
}

34
feeds/wifi-ax/libtcmd/src/nl80211_drv.h Executable file
View File

@@ -0,0 +1,34 @@
/*
* Copyright (c) 2011-2012 Qualcomm Atheros Inc. All Rights Reserved.
* Qualcomm Atheros Proprietary and Confidential.
*/
#ifndef _NL80211_DRV_H_
#define _NL80211_DRV_H_
#include <netlink/socket.h>
#if !defined(WIN_AP_HOST) && !defined(MDM)
#ifndef sockaddr_storage
#define sockaddr_storage __kernel_sockaddr_storage
#endif
#endif
#include <netlink/genl/genl.h>
#include <netlink/genl/family.h>
#include <netlink/genl/ctrl.h>
#include <netlink/msg.h>
#include <netlink/attr.h>
#include <linux/nl80211.h>
#include <netinet/in.h>
#include "libtcmd.h"
int nl80211_init(struct tcmd_cfg *cfg);
int nl80211_tcmd_tx(struct tcmd_cfg *cfg, void *buf, int len);
int nl80211_tcmd_rx(struct tcmd_cfg *cfg);
int nl80211_tcmd_start(struct tcmd_cfg *cfg);
int nl80211_tcmd_stop(struct tcmd_cfg *cfg);
#ifndef CONFIG_AR6002_REV6
int nl80211_set_ep(uint32_t *driv_ep, enum tcmd_ep ep);
#endif
#endif /* _NL80211_DRV_H_ */

57
feeds/wifi-ax/libtcmd/src/os.c Executable file
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/*
* Copyright (c) 2011-2012, 2018 Qualcomm Technologies, Inc.
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*
* 2011-2012 Qualcomm Atheros Inc. All Rights Reserved.
* Qualcomm Atheros Proprietary and Confidential.
*/
#include <strings.h>
#include "libtcmd.h"
#include "os.h"
#ifdef WIN_AP_HOST
#include <linux/errno.h>
#endif
int tcmd_set_timer(struct tcmd_cfg *cfg)
{
struct itimerspec exp_time;
int err;
#ifndef WIN_AP_HOST
A_DBG("setting timer\n");
#endif
bzero(&exp_time, sizeof(exp_time));
exp_time.it_value.tv_sec = TCMD_TIMEOUT;
err = timer_settime(cfg->timer, 0, &exp_time, NULL);
cfg->timeout = false;
if (err < 0)
return -errno;
return 0;
}
int tcmd_reset_timer(struct tcmd_cfg *cfg)
{
struct itimerspec curr_time;
int err;
err = timer_gettime(cfg->timer, &curr_time);
if (err < 0)
return -errno;
if (!curr_time.it_value.tv_sec && !curr_time.it_value.tv_nsec)
return -ETIMEDOUT;
#ifndef WIN_AP_HOST
A_DBG("resetting timer\n");
#endif
bzero(&curr_time, sizeof(curr_time));
err = timer_settime(cfg->timer, 0, &curr_time, NULL);
if (err < 0)
return -errno;
return 0;
}

10
feeds/wifi-ax/libtcmd/src/os.h Executable file
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/*
* Copyright (c) 2011-2012 Qualcomm Atheros Inc. All Rights Reserved.
* Qualcomm Atheros Proprietary and Confidential.
*/
/* private, os-specific things go here */
int tcmd_set_timer(struct tcmd_cfg *cfg);
/* reset timer and return 0 if still running, return -ETIMEDOUT if the tcmd
* timer timed out */
int tcmd_reset_timer(struct tcmd_cfg *cfg);

76
feeds/wifi-ax/qca-diag/Makefile Executable file
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include $(TOPDIR)/rules.mk
include $(INCLUDE_DIR)/kernel.mk
PKG_NAME:=qca-diag
#PKG_SOURCE_PROTO:=git
#PKG_BRANCH:=master
PKG_RELEASE:=1
PKG_VERSION:=11.5
#PKG_SOURCE:=$(PKG_NAME)-$(PKG_VERSION).tar.gz
#PKG_SOURCE_SUBDIR:=$(PKG_NAME)-$(PKG_VERSION)
#PKG_SOURCE_VERSION:=$(PKG_VERSION)
include $(INCLUDE_DIR)/package.mk
define Package/qca-diag
SECTION:=QCA
CATEGORY:=QCA
TITLE:=QCA Linux diag software
DEPENDS:=@TARGET_ipq50xx||TARGET_ipq_ipq807x||TARGET_ipq_ipq807x_64||TARGET_ipq_ipq60xx||TARGET_ipq_ipq60xx_64||TARGET_ipq_ipq50xx||TARGET_ipq_ipq50xx_64||TARGET_ipq807x||TARGET_ipq60xx||TARGET_ipq95xx +libpthread
endef
define Package/qca-diag/Description
This package contains a Linux qca diag application such as on device logging
and socket logging for QCA chipset.
This package enables diag messages to log over sockets and also expose
interface for other modules to route the diag message to kernel diag
stack.
endef
QCASSDK_CONFIG_OPTS+= TOOL_PATH=$(TOOLCHAIN_DIR)/bin/ \
SYS_PATH=$(LINUX_DIR) \
TOOLPREFIX=$(TARGET_CROSS) \
KVER=$(LINUX_VERSION) \
ARCH=$(LINUX_KARCH)
define Build/InstallDev
$(INSTALL_DIR) $(STAGING_DIR)/usr/include/qca-diag $(STAGING_DIR)/usr/lib/
$(CP) $(PKG_BUILD_DIR)/include/* $(STAGING_DIR)/usr/include/qca-diag/
$(CP) $(PKG_BUILD_DIR)/lib/libdiag.so $(STAGING_DIR)/usr/lib/
endef
define Package/qca-diag/install
$(INSTALL_DIR) $(1)/usr/sbin
$(INSTALL_DIR) $(1)/usr/bin
$(INSTALL_DIR) $(1)/usr/lib
$(INSTALL_BIN) $(PKG_BUILD_DIR)/bin/diag_socket_app $(1)/usr/sbin/
$(INSTALL_BIN) $(PKG_BUILD_DIR)/bin/diag_stress_app $(1)/usr/sbin/
$(INSTALL_BIN) $(PKG_BUILD_DIR)/bin/registerReboot $(1)/usr/sbin/
$(INSTALL_BIN) $(PKG_BUILD_DIR)/bin/qld_server $(1)/usr/sbin/
$(INSTALL_BIN) $(PKG_BUILD_DIR)/bin/diag_mdlog $(1)/usr/sbin/
$(INSTALL_BIN) $(PKG_BUILD_DIR)/lib/libdiag.so $(1)/usr/lib/
$(INSTALL_BIN) $(PKG_BUILD_DIR)/qdss_setup.sh $(1)/usr/bin/
endef
$(eval $(call BuildPackage,qca-diag))
define KernelPackage/coresight-stream-sock
TITLE:=Add Coresight network stream module
KCONFIG:=CONFIG_CORESIGHT_STREAM
DEPENDS:=\
+kmod-udptunnel4 \
+IPV6:kmod-udptunnel6
FILES:=$(LINUX_DIR)/drivers/hwtracing/coresight/coresight-stream.ko
endef
define KernelPackage/coresight-stream-sock/description
Add Coresight network stream module
endef
$(eval $(call KernelPackage,coresight-stream-sock))

1
feeds/wifi-ax/qca-diag/src/Android.mk Executable file
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include $(call all-subdir-makefiles)

44
feeds/wifi-ax/qca-diag/src/Makefile Executable file
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INCLUDE_DIR += include -I src
LIB := -lpthread -shared
LDFLAGS += -Llib/ -ldiag -lpthread -pie
FLAGS = -fPIC -g -DUSE_MUSL
EXTRA_CFLAGS = $(TARGET_CFLAGS) $(TARGET_LDFLAGS) $(TARGET_CPPFLAGS) -fstack-protector-all -znow -zrelro -Werror
sample_cliobj := dci_client/diag_dci_sample.c
klogobj := klog/diag_klog.c
mdobj := mdlog/diag_mdlog.c
socketobj := socket_log/diag_socket_log.c
uartobj := uart_log/diag_uart_log.c
testdiag := test/test_diag.c
libdiag := src/diag_lsm.c src/diag_lsm_dci.c src/ts_linux.c src/diag_lsm_event.c \
src/diag_lsm_log.c src/diag_lsm_msg.c src/diag_lsm_pkt.c \
src/diagsvc_malloc.c src/msg_arrays_i.c src/diag_qshrink4_db_parser.c
all:
$(CC) -o libdiag.so $(libdiag) $(TARGET_LDFLAGS) $(FLAGS) $(EXTRA_CFLAGS) -I $(INCLUDE_DIR) $(LIB)
mkdir -p lib
mv libdiag.so lib/
$(CC) -o diag_socket_app $(socketobj) $(LDFLAGS) $(EXTRA_CFLAGS) -fpie -I $(INCLUDE_DIR)
mkdir -p bin
mv diag_socket_app bin/
$(CC) -o registerReboot registerReboot.c $(LDFLAGS) $(EXTRA_CFLAGS) -fpie -I $(INCLUDE_DIR)
mkdir -p bin
mv registerReboot bin/
$(CC) -o qld_server qld_server.c $(LDFLAGS) $(EXTRA_CFLAGS) -fpie -I $(INCLUDE_DIR)
mkdir -p bin
mv qld_server bin/
$(CC) -o diag_stress_app $(testdiag) $(LDFLAGS) $(EXTRA_CFLAGS) -fpie -I $(INCLUDE_DIR)
mv diag_stress_app bin/
$(CC) -o diag_mdlog $(mdobj) $(LDFLAGS) $(EXTRA_CFLAGS) -fpie -I $(INCLUDE_DIR)
mkdir -p bin
mv diag_mdlog bin/
clean:
rm -rf lib/
rm -rf bin/
rm -rf *.o

11
feeds/wifi-ax/qca-diag/src/Makefile.am Executable file
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# Makefile.am - Automake script for diag
#
ACLOCAL_AMFLAGS = -I m4
SUBDIRS = src test klog mdlog PktRspTest uart_log dci_sample callback_sample socket_log
dist_doc_DATA =
docdir = doc
pkgconfigdir = $(libdir)/pkgconfig
pkgconfig_DATA = diag.pc
EXTRA_DIST = $(pkgconfig_DATA)

28
feeds/wifi-ax/qca-diag/src/PktRspTest/Android.mk Executable file
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################################################################################
# @file pkgs/diag/Android.mk
# @brief Makefile for building the string library on Android.
################################################################################
LOCAL_PATH:= $(call my-dir)
include $(CLEAR_VARS)
libdiag_includes:= \
$(LOCAL_PATH)/../include \
$(LOCAL_PATH)/../src \
LOCAL_C_INCLUDES:= $(libdiag_includes)
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/common/inc
LOCAL_SRC_FILES:= \
PktRspTest.c \
commonSharedLibraries :=libdiag \
LOCAL_MODULE:= PktRspTest
LOCAL_MODULE_TAGS := optional debug
LOCAL_SHARED_LIBRARIES := $(commonSharedLibraries)
LOCAL_MODULE_OWNER := qcom
include $(BUILD_EXECUTABLE)

23
feeds/wifi-ax/qca-diag/src/PktRspTest/Makefile.am Executable file
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AM_CFLAGS = -Wall \
-Wundef \
-Wstrict-prototypes \
-Wno-trigraphs \
-Werror
AM_CPPFLAGS = -D__packed__= \
-DIMAGE_APPS_PROC \
-DFEATURE_Q_SINGLE_LINK \
-DFEATURE_Q_NO_SELF_QPTR \
-DFEATURE_LINUX \
-DFEATURE_NATIVELINUX \
-DFEATURE_DSM_DUP_ITEMS \
-DFEATURE_LE_DIAG \
-I../src \
-I../include
bin_PROGRAMS = PktRspTest
PktRspTest_SOURCES = PktRspTest.c
PktRspTest_LDFLAGS = -lpthread
PktRspTest_LDADD = ../src/libdiag.la

214
feeds/wifi-ax/qca-diag/src/PktRspTest/PktRspTest.c Executable file
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/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
Sample Packet Response Test Application on Diag Interface
GENERAL DESCRIPTION
Contains main implementation of PktRsp Test app. on Apps processor using
Diagnostic Services.
EXTERNALIZED FUNCTIONS
None
INITIALIZATION AND SEQUENCING REQUIREMENTS
Copyright (c) 2007-2011, 2016 Qualcomm Technologies, Inc.
All Rights Reserved.
Qualcomm Technologies Confidential and Proprietary
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================
EDIT HISTORY FOR MODULE
This section contains comments describing changes made to the module.
Notice that changes are listed in reverse chronological order.
$Header:
when who what, where, why
-------- --- ----------------------------------------------------------
3/11/2009 Shalabh Jain and Hiren Bhinde Created
4/2/2009 Shalabh Jain and Yash Kharia Adding ftmTest app to the mainline
===========================================================================*/
#include "msg.h"
#include "diag_lsm.h"
#include "stdio.h"
#include "diagpkt.h"
#include "string.h"
#include <unistd.h>
/* Subsystem command codes for the test app */
#define DIAG_TEST_APP_MT_NO_SUBSYS 143
#define DIAG_SUBSYS_TEST_CLIENT_MT 11
#define DIAG_TEST_APP_F_75 0x0000
#define DIAG_TEST_APP_F_75_test 0x0003
/*===========================================================================*/
/* Local Function declarations */
/*===========================================================================*/
void *dummy_func_no_subsys(void *req_pkt,
uint16 pkt_len);
void *dummy_func_75(void *req_pkt,
uint16 pkt_len);
void sample_parse_request(void *req_pkt, uint16 pkt_len, void *rsp);
/*===========================================================================*/
/* User tables for this client(ftmtest app) */
/*===========================================================================*/
static const diagpkt_user_table_entry_type test_tbl_1[] =
{ /* subsys cmd low, subsys cmd code high, call back function */
{DIAG_TEST_APP_MT_NO_SUBSYS, DIAG_TEST_APP_MT_NO_SUBSYS,
dummy_func_no_subsys},
};
static const diagpkt_user_table_entry_type test_tbl_2[] =
{ /* susbsys_cmd_code lo = 0 , susbsys_cmd_code hi = 0, call back function */
{DIAG_TEST_APP_F_75, DIAG_TEST_APP_F_75, dummy_func_75},
/* susbsys_cmd_code lo = 3 , susbsys_cmd_code hi = 3, call back function */
{DIAG_TEST_APP_F_75_test, DIAG_TEST_APP_F_75_test, dummy_func_75},
};
/*===========================================================================*/
/* Main Function. This initializes Diag_LSM, calls the tested APIs and exits. */
/*===========================================================================*/
int main(void)
{
boolean bInit_Success = FALSE;
printf("\n\t\t=====================");
printf("\n\t\tStarting FTM Test App");
printf("\n\t\t=====================");
#ifdef DIAG_DEBUG
printf("\n Calling LSM init \n");
#endif
/* Calling LSM init */
bInit_Success = Diag_LSM_Init(NULL);
if (!bInit_Success) {
printf("FTM Test App: Diag_LSM_Init() failed.");
return -1;
}
#ifdef DIAG_DEBUG
printf("FTM Test App: Diag_LSM_Init succeeded. \n");
#endif
/* Registering diag packet with no subsystem id.
* This is so that an empty request to the app. gets a response back
* and we can ensure that the diag is working as well as the app. is
* responding subsys id = 255, table = test_tb1_1 ....
* To execute on QXDM :: "send_data 143 0 0 0 0 0"
*/
DIAGPKT_DISPATCH_TABLE_REGISTER(DIAGPKT_NO_SUBSYS_ID, test_tbl_1);
/* Registering diag packet with no subsystem id. This is so
* that an empty request to the app. gets a response back
* and we can ensure that the diag is working as well as the app. is
* responding subsys id = 11, table = test_tbl_2,
* To execute on QXDM :: "send_data 75 11 0 0 0 0 0 0"
OR
* To execute on QXDM :: "send_data 75 11 3 0 0 0 0 0"
*/
DIAGPKT_DISPATCH_TABLE_REGISTER(DIAG_SUBSYS_TEST_CLIENT_MT,
test_tbl_2);
/* Adding Sleep of 5 sec so that mask is updated */
sleep(5);
do {
MSG_1(MSG_SSID_DIAG, MSG_LVL_HIGH,
"Hello world from FTM Test App.%d", 270938);
sleep(1);
} while (1);
/* Now find the DeInit function and call it.
* Clean up before exiting
*/
Diag_LSM_DeInit();
return 0;
}
/*===========================================================================*/
/* dummy registered functions */
/*===========================================================================*/
void *dummy_func_no_subsys(void *req_pkt, uint16 pkt_len)
{
void *rsp = NULL;
#ifdef DIAG_DEBUG
printf("\n ##### FTM Test App: : Inside dummy_func_no_subsys #####\n");
#endif
/* Allocate the same length as the request. */
rsp = diagpkt_alloc(DIAG_TEST_APP_MT_NO_SUBSYS, pkt_len);
if (rsp != NULL) {
memcpy((void *) rsp, (void *) req_pkt, pkt_len);
#ifdef DIAG_DEBUG
printf("FTM Test APP: diagpkt_alloc succeeded");
#endif
} else {
printf("FTM Test APP: diagpkt_subsys_alloc failed");
}
return rsp;
}
void *dummy_func_75(void *req_pkt, uint16 pkt_len)
{
void *rsp = NULL;
#ifdef DIAG_DEBUG
printf("\n FTM Test App: Inside dummy_func_75 \n");
#endif
/* Allocate the same length as the request. */
rsp = diagpkt_subsys_alloc(DIAG_TEST_APP_MT_NO_SUBSYS,
DIAG_TEST_APP_F_75, 20);
/* The request sent in from QXDM is parsed here. The response to each kind of
request can be customized. To demonstrate this, we look for codes 1, 2, 3, 4 in
the request (in the same order). For example, send_data 75 11 3 0 1 2 3 4 0 0 0.
Here a specific response string will be sent back. Any other request is simply
echoed back.This is demonstrated in sample_parse_request function
*/
if (rsp != NULL) {
sample_parse_request(req_pkt, pkt_len, rsp);
#ifdef DIAG_DEBUG
printf("FTM Test App: diagpkt_subsys_alloc succeeded \n");
#endif
} else
printf("FTM Test APP: diagpkt_subsys_alloc failed");
return rsp;
}
/*===========================================================================*/
/* dummy parse request function*/
/*===========================================================================*/
void sample_parse_request(void *req_pkt, uint16 pkt_len, void *rsp)
{
unsigned char *temp = (unsigned char *)req_pkt + 4;
int code1, code2, code3, code4;
char *rsp_string = "FTM response";
code1 = (int)(*(char *)temp);
temp++;
code2 = (int)(*(char *)temp);
temp++;
code3 = (int)(*(char *)temp);
temp++;
code4 = (int)(*(char *)temp);
if (code1 == 1 && code2 == 2 && code3 == 3 && code4 == 4) {
memcpy((void *) rsp, (void *) req_pkt, 4);
memcpy((void *) ((unsigned char *)rsp+4), (void *) rsp_string,
strlen(rsp_string));
} else
memcpy((void *) (rsp), (void *) req_pkt, pkt_len);
}

10
feeds/wifi-ax/qca-diag/src/autogen.sh Executable file
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#!/bin/sh
# autogen.sh -- Autotools bootstrapping
libtoolize --copy --force
aclocal &&\
autoheader &&\
autoconf &&\
automake --add-missing --copy

29
feeds/wifi-ax/qca-diag/src/callback_sample/Android.mk Executable file
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################################################################################
# @file pkgs/stringl/Android.mk
# @brief Makefile for building the string library on Android.
################################################################################
LOCAL_PATH:= $(call my-dir)
include $(CLEAR_VARS)
libdiag_includes:= \
$(LOCAL_PATH)/../include \
$(LOCAL_PATH)/../src
LOCAL_C_INCLUDES := $(libdiag_includes)
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/common/inc
LOCAL_SRC_FILES:= \
diag_callback_sample.c
commonSharedLibraries :=libdiag
LOCAL_MODULE := diag_callback_sample
LOCAL_MODULE_TAGS := optional
LOCAL_SHARED_LIBRARIES := $(commonSharedLibraries)
LOCAL_SHARED_LIBRARIES += liblog
LOCAL_MODULE_OWNER := qcom
include $(BUILD_EXECUTABLE)

27
feeds/wifi-ax/qca-diag/src/callback_sample/Makefile.am Executable file
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@@ -0,0 +1,27 @@
AM_CFLAGS = -Wall \
-Wundef \
-Wstrict-prototypes \
-Wno-trigraphs
AM_CPPFLAGS = -D__packed__= \
-DIMAGE_APPS_PROC \
-DFEATURE_Q_SINGLE_LINK \
-DFEATURE_Q_NO_SELF_QPTR \
-DFEATURE_LINUX \
-DFEATURE_NATIVELINUX \
-DFEATURE_DSM_DUP_ITEMS \
-DFEATURE_LE_DIAG \
-I../src \
-I../include
bin_PROGRAMS = diag_callback_sample
diag_callback_sample_SOURCES = diag_callback_sample.c
diag_callback_sample_LDADD = ../src/libdiag.la
if USE_GLIB
diag_callback_sample_CFLAGS = -DUSE_GLIB @GLIB_CFLAGS@
diag_callback_sample_LDFLAGS = -lpthread @GLIB_LIBS@
else
diag_callback_sample_LDFLAGS = -lpthread -lcutils
endif

184
feeds/wifi-ax/qca-diag/src/callback_sample/diag_callback_sample.c Executable file
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/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
Sample Application for Diag Callback Interface
GENERAL DESCRIPTION
Contains sample implementation of Diagnostic Callback APIs.
EXTERNALIZED FUNCTIONS
None
INITIALIZATION AND SEQUENCING REQUIREMENTS
Copyright (c) 2012-2014 Qualcomm Technologies, Inc.
All Rights Reserved.
Qualcomm Technologies Confidential and Proprietary
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
#include <stdio.h>
#include <stdlib.h>
#include "string.h"
#include "malloc.h"
#include <unistd.h>
#include <fcntl.h>
#include <getopt.h>
#include <unistd.h>
#include "errno.h"
#include "msg.h"
#include "diag_lsm.h"
#include "stdio.h"
#include "diagpkt.h"
#include "diag_lsmi.h"
#include "diag_shared_i.h"
#define REQ_LOOPBACK_LEN 7
#define REQ_STRESSTEST_LEN 24
/* Callback for the receiving Diag data */
int process_diag_data(unsigned char *ptr, int len, void *context_data)
{
int i;
if (!ptr) {
return 0;
}
if (context_data) {
if (*(int *)context_data == MSM) {
DIAG_LOGE("diag_callback_sample: Received data of len %d from MSM", len);
} else if (*(int *)context_data == MDM) {
DIAG_LOGE("diag_callback_sample: Received data of len %d from MDM", len);
} else {
DIAG_LOGE("diag_callback_sample: Received data of len %d from unknown proc %d", len, *(int *)context_data);
}
}
for (i = 0; i < len; i++) {
if (i % 8 == 0) {
DIAG_LOGE("\n ");
}
DIAG_LOGE("%02x ", ptr[i]);
}
DIAG_LOGE("\n");
return 0;
}
/* Helper function to check if MDM is supported */
static uint8 is_mdm_supported()
{
uint16 remote_mask = 0;
uint8 err = 0;
err = diag_has_remote_device(&remote_mask);
if (err != 1) {
DIAG_LOGE("diag_callback_sample: Unable to check for MDM support, err: %d\n", errno);
return 0;
}
return (remote_mask & MDM);
}
int main(int argc, char *argv[])
{
(void)argc;
(void)argv;
int err = 0;
int data_primary = MSM;
int data_remote = MDM;
uint8 mdm_support = 0;
boolean status = FALSE;
unsigned char req_modem_loopback[REQ_LOOPBACK_LEN] =
{ 75, 18, 41, 0, 1, 2, 3 };
unsigned char req_modem_msg_stress_test[REQ_STRESSTEST_LEN] =
{ 75, 18, 0, 0, 1, 0, 0, 0, 1, 1, 1, 0, 0, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0 };
unsigned char req_adsp_log_stress_test[REQ_STRESSTEST_LEN] =
{ 75, 18, 7, 0, 1, 0, 0, 0, 16, 1, 1, 0, 0, 1, 0, 0, 5, 0, 0, 0, 10, 0, 0, 0 };
status = Diag_LSM_Init(NULL);
if (!status) {
DIAG_LOGE("diag_callback_sample: Diag LSM Init failed, exiting... err: %d\n", errno);
exit(0);
}
/* Register the callback function for receiving data from MSM */
diag_register_callback(process_diag_data, &data_primary);
/* Check if MDM is supported, If yes, register for MDM callback too */
mdm_support = is_mdm_supported();
if (mdm_support)
diag_register_remote_callback(process_diag_data, MDM, &data_remote);
/* Switch to Callback mode to receive Diag data in this application */
diag_switch_logging(CALLBACK_MODE, NULL);
/*
* You can now send requests to the processors. The response, and any
* log, event or F3s will be sent via the callback function.
*/
DIAG_LOGE("diag_callback_sample: Sending Modem loopback request to MSM\n");
err = diag_callback_send_data(MSM, req_modem_loopback, REQ_LOOPBACK_LEN);
if (err) {
DIAG_LOGE("diag_callback_sample: Unable to send Modem loopback request to MSM\n");
} else {
sleep(2);
}
DIAG_LOGE("diag_callback_sample: Sending Modem Message Stress Test to MSM\n");
err = diag_callback_send_data(MSM, req_modem_msg_stress_test, REQ_STRESSTEST_LEN);
if (err) {
DIAG_LOGE("diag_callback_sample: Unable to send Modem Message Stress Test to MSM\n");
} else {
sleep(30);
}
DIAG_LOGE("diag_callback_sample: Sending ADSP Log Stress Test to MSM\n");
err = diag_callback_send_data(MSM, req_adsp_log_stress_test, REQ_STRESSTEST_LEN);
if (err) {
DIAG_LOGE("diag_callback_sample: Unable to send ADSP Log Stress Test to MSM\n");
} else {
sleep(30);
}
if (!mdm_support)
goto finish;
DIAG_LOGE("diag_callback_sample: Sending Modem loopback request to MDM\n");
/* If MDM is supported, send the requests to MDM ASIC as well */
err = diag_callback_send_data(MDM, req_modem_loopback, REQ_LOOPBACK_LEN);
if (err) {
DIAG_LOGE("diag_callback_sample: Unable to send Modem loopback request to MDM\n");
} else {
sleep(2);
}
DIAG_LOGE("diag_callback_sample: Sending Modem Message Stress Test to MDM\n");
err = diag_callback_send_data(MDM, req_modem_msg_stress_test, REQ_STRESSTEST_LEN);
if (err) {
DIAG_LOGE("diag_callback_sample: Unable to send Modem Message Stress Test to MDM\n");
} else {
sleep(30);
}
DIAG_LOGE("diag_callback_sample: Sending ADSP Log Stress Test to MDM\n");
err = diag_callback_send_data(MDM, req_adsp_log_stress_test, REQ_STRESSTEST_LEN);
if (err) {
DIAG_LOGE("diag_callback_sample: Unable to send ADSP Log Stress Test to MDM\n");
} else {
sleep(30);
}
finish:
/*
* When you are done using the Callback Mode, it is highly recommended
* that you switch back to USB Mode.
*/
diag_switch_logging(USB_MODE, NULL);
/* Release the handle to Diag*/
status = Diag_LSM_DeInit();
if (!status) {
DIAG_LOGE("diag_callback_sample: Unable to close handle to diag driver, err: %d\n", errno);
exit(0);
}
return 0;
}

110
feeds/wifi-ax/qca-diag/src/configure.ac Executable file
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@@ -0,0 +1,110 @@
# -*- Autoconf -*-
# configure.ac -- Autoconf script for diag
#
# Process this file with autoconf to produce a configure script.
AC_PREREQ(2.61)
AC_INIT([diag],
1.0.0)
AM_INIT_AUTOMAKE([foreign])
AM_MAINTAINER_MODE
AC_CONFIG_SRCDIR([src/diag_lsm.c])
AC_CONFIG_HEADER([config.h])
AC_CONFIG_MACRO_DIR([m4])
DIAG_LIBRARY_NAME=diag
#release versioning
DIAG_MAJOR_VERSION=1
DIAG_MINOR_VERSION=0
DIAG_MICRO_VERSION=0
DIAG_LIBRARY_VERSION=1:0:0
AC_SUBST(DIAG_LIBRARY_VERSION)
PACKAGE=$DIAG_LIBRARY_NAME
AC_SUBST(DIAG_LIBRARY_NAME)
DIAG_VERSION=$DIAG_MAJOR_VERSION.$DIAG_MINOR_VERSION.$DIAG_MICRO_VERSION
DIAG_RELEASE=$DIAG_MAJOR_VERSION.$DIAG_MINOR_VERSION
AC_SUBST(DIAG_RELEASE)
AC_SUBST(DIAG_VERSION)
VERSION=$DIAG_VERSION
LT_INIT
AM_PROG_LIBTOOL
# Checks for programs.
AC_PROG_CC
AM_PROG_CC_C_O
AC_PROG_LIBTOOL
AC_PROG_AWK
AC_PROG_CPP
AC_PROG_INSTALL
AC_PROG_LN_S
AC_PROG_MAKE_SET
PKG_PROG_PKG_CONFIG
AC_ARG_WITH([kernel],
AC_HELP_STRING([--with-kernel=@<:@dir@:>@],
[Specify the location of the Linux kernel headers]),
[kerneldir=$withval],
with_kernel=no)
if test "x$with_kernel" != "xno"; then
CFLAGS="${CFLAGS} -I${kerneldir}/include -I${kerneldir}/arch/arm/include"
fi
AC_ARG_WITH([glib],
AC_HELP_STRING([--with-glib],
[enable glib, building HLOS systems which use glib]))
if (test "x${with_glib}" = "xyes"); then
AC_DEFINE(ENABLE_USEGLIB, 1, [Define if HLOS systems uses glib])
PKG_CHECK_MODULES(GTHREAD, gthread-2.0 >= 2.16, dummy=yes,
AC_MSG_ERROR(GThread >= 2.16 is required))
PKG_CHECK_MODULES(GLIB, glib-2.0 >= 2.16, dummy=yes,
AC_MSG_ERROR(GLib >= 2.16 is required))
GLIB_CFLAGS="$GLIB_CFLAGS $GTHREAD_CFLAGS"
GLIB_LIBS="$GLIB_LIBS $GTHREAD_LIBS"
AC_SUBST(GLIB_CFLAGS)
AC_SUBST(GLIB_LIBS)
fi
AC_ARG_WITH([common_includes],
AC_HELP_STRING([--with-common-includes=@<:@dir@:>@],
[Specify the location of the common headers]),
[common_incdir=$withval],
with_common_includes=no)
if test "x$with_common_includes" != "xno"; then
CFLAGS="${CFLAGS} -I${common_incdir}"
fi
AM_CONDITIONAL(USE_GLIB, test "x${with_glib}" = "xyes")
# Checks for libraries.
PKG_CHECK_MODULES([TGENOFF], [time-genoff])
AC_SUBST([TGENOFF_CFLAGS])
AC_SUBST([TGENOFF_LIBS])
AC_SUBST([CFLAGS])
AC_SUBST([CC])
AC_CONFIG_FILES([ \
Makefile \
src/Makefile \
test/Makefile \
klog/Makefile \
mdlog/Makefile \
uart_log/Makefile \
PktRspTest/Makefile \
dci_sample/Makefile \
callback_sample/Makefile \
socket_log/Makefile \
diag.pc
])
AC_OUTPUT

29
feeds/wifi-ax/qca-diag/src/dci_sample/Android.mk Executable file
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################################################################################
# @file pkgs/stringl/Android.mk
# @brief Makefile for building the string library on Android.
################################################################################
LOCAL_PATH:= $(call my-dir)
include $(CLEAR_VARS)
libdiag_includes:= \
$(LOCAL_PATH)/../include \
$(LOCAL_PATH)/../src
LOCAL_C_INCLUDES := $(libdiag_includes)
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/common/inc
LOCAL_SRC_FILES:= \
diag_dci_sample.c
commonSharedLibraries :=libdiag
LOCAL_MODULE := diag_dci_sample
LOCAL_MODULE_TAGS := optional
LOCAL_SHARED_LIBRARIES := $(commonSharedLibraries)
LOCAL_SHARED_LIBRARIES += liblog
LOCAL_MODULE_OWNER := qcom
include $(BUILD_EXECUTABLE)

28
feeds/wifi-ax/qca-diag/src/dci_sample/Makefile.am Executable file
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@@ -0,0 +1,28 @@
AM_CFLAGS = -Wall \
-Wundef \
-Wstrict-prototypes \
-Wno-trigraphs
AM_CPPFLAGS = -D__packed__= \
-DIMAGE_APPS_PROC \
-DFEATURE_Q_SINGLE_LINK \
-DFEATURE_Q_NO_SELF_QPTR \
-DFEATURE_LINUX \
-DFEATURE_NATIVELINUX \
-DFEATURE_DSM_DUP_ITEMS \
-DFEATURE_LE_DIAG \
-I../src \
-I../include \
-I$(WORKSPACE)/common/inc
bin_PROGRAMS = diag_dci_sample
diag_dci_sample_SOURCES = diag_dci_sample.c
diag_dci_sample_LDADD = ../src/libdiag.la
if USE_GLIB
diag_dci_sample_CFLAGS = -DUSE_GLIB @GLIB_CFLAGS@
diag_dci_sample_LDFLAGS = -lpthread @GLIB_LIBS@
else
diag_dci_sample_LDFLAGS = -lpthread -lcutils
endif

590
feeds/wifi-ax/qca-diag/src/dci_sample/diag_dci_sample.c Executable file
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@@ -0,0 +1,590 @@
/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
Sample Application for Diag Consumer Interface
GENERAL DESCRIPTION
This is a sample application to demonstrate using Diag Consumer Interface APIs.
EXTERNALIZED FUNCTIONS
None
INITIALIZATION AND SEQUENCING REQUIREMENTS
Copyright (c) 2013-2016 Qualcomm Technologies, Inc. All Rights Reserved.
Qualcomm Technologies Proprietary and Confidential.
Author: Ravi Aravamudhan
Source: Jamila Murabbi
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================*/
#include "event.h"
#include "msg.h"
#include "log.h"
#include "diag_lsm.h"
#include "diag_lsmi.h"
#include "diag_lsm_dci.h"
#include "diag_shared_i.h"
#include "stdio.h"
#include "string.h"
#include "malloc.h"
#include "diagpkt.h"
#include "../src/diagdiag.h" /* For macros used in this sample. */
#include <errno.h>
#include <unistd.h>
#include <pthread.h>
#include <sys/klog.h>
#include <sys/stat.h>
#include <stdlib.h>
#include <getopt.h>
#include <sys/time.h>
#define TOTAL_LOG_CODES 1
#define TOTAL_LOG_CODES_APPS 3
#define TOTAL_EVENT_CODES 4
#define DIAG_SAMPLE_SIGNAL SIGRTMIN + 15
#define DIAG_CMD_CODE_IDX 0
#define DIAG_SUBSYS_ID_IDX 1
#define DIAG_STRESS_TEST_OP_IDX 8
/* Structure for Log packet parsing*/
struct log_code_name_type {
int log_code;
char *name;
};
struct event_code_name_type {
event_id_enum_type event_code;
char *name;
};
/* Channel proc set to MSM by default */
static int channel = MSM;
/* Set a sample log codes */
struct log_code_name_type log_codes[TOTAL_LOG_CODES] = {
{ LOG_DIAG_STRESS_TEST_C, "Diag Log Stress Test" }
};
struct log_code_name_type log_codes_apps[TOTAL_LOG_CODES_APPS] = {
{ LOG_WMS_SET_ROUTES_C, "WMS Set Routes" },
{ LOG_DATA_PROTOCOL_LOGGING_C, "DPL Log Messages" },
{ LOG_WMS_READ_C, "WMS Read" }
};
struct event_code_name_type event_codes[TOTAL_EVENT_CODES] = {
{ EVENT_DIAG_STRESS_TEST_NO_PAYLOAD, "Diag Event Stress Test" },
{ EVENT_DIAG_STRESS_TEST_WITH_PAYLOAD, "Diag Event w/ Payload Stress Test"},
{ EVENT_DIAG_STRESS_TEST_COMPLETED, "Diag Event Stress Test Complete"},
{ EVENT_DIAG_DROP_DEBUG, "Diag Event Drop Debug"}
};
/* Set flag to print the bytes */
static inline void print_bytes(unsigned char *buf, int len, int flag)
{
int i = 0;
if (!flag)
return;
if (!buf || len <= 0)
return;
for (i = 0; i < len; i++) {
if(i % 8 == 0)
printf("\n");
printf(" %02x ", buf[i]);
}
printf("\n");
}
static void usage(char *progname)
{
printf("\n Usage for %s:\n", progname);
printf("\n-c --channel name:\t Designate the channel name for all operations 0 - MSM and 1 - MDM\n");
exit(0);
}
static void parse_args(int argc, char **argv)
{
int command, proc_id;
int file_num = 0;
struct option longopts[] =
{
{ "channelname", 1, NULL, 'c'},
{ "help", 0, NULL, 'h'},
};
while ((command = getopt_long(argc, argv, "c:h", longopts, NULL))
!= -1) {
switch (command) {
case 'c':
proc_id = atol(optarg);
if (proc_id >= MSM && proc_id <= MDM)
channel = proc_id;
break;
case 'h':
default:
usage(argv[0]);
break;
}
}
}
/* Signal handler that handles the change in DCI channel */
void notify_handler(int signal, siginfo_t *info, void *unused)
{
(void)unused;
if (info) {
int err;
diag_dci_peripherals list = 0;
DIAG_LOGE("diag: In %s, signal %d received from kernel, data is: %x\n",
__func__, signal, info->si_int);
if (info->si_int & DIAG_STATUS_OPEN) {
if (info->si_int & DIAG_CON_MPSS) {
DIAG_LOGE("diag: DIAG_STATUS_OPEN on DIAG_CON_MPSS\n");
} else if (info->si_int & DIAG_CON_LPASS) {
DIAG_LOGE("diag: DIAG_STATUS_OPEN on DIAG_CON_LPASS\n");
} else {
DIAG_LOGE("diag: DIAG_STATUS_OPEN on unknown peripheral\n");
}
} else if (info->si_int & DIAG_STATUS_CLOSED) {
if (info->si_int & DIAG_CON_MPSS) {
DIAG_LOGE("diag: DIAG_STATUS_CLOSED on DIAG_CON_MPSS\n");
} else if (info->si_int & DIAG_CON_LPASS) {
DIAG_LOGE("diag: DIAG_STATUS_CLOSED on DIAG_CON_LPASS\n");
} else {
DIAG_LOGE("diag: DIAG_STATUS_CLOSED on unknown peripheral\n");
}
}
err = diag_get_dci_support_list_proc(MSM, &list);
if (err != DIAG_DCI_NO_ERROR) {
DIAG_LOGE("diag: could not get support list, err: %d\n", err);
}
/* This will print out all peripherals supporting DCI */
if (list & DIAG_CON_MPSS)
DIAG_LOGE("diag: Modem supports DCI\n");
if (list & DIAG_CON_LPASS)
DIAG_LOGE("diag: LPASS supports DCI\n");
if (list & DIAG_CON_WCNSS)
DIAG_LOGE("diag: RIVA supports DCI\n");
if (list & DIAG_CON_APSS)
DIAG_LOGE("diag: APSS supports DCI\n");
if (!list)
DIAG_LOGE("diag: No current dci support\n");
} else {
DIAG_LOGE("diag: In %s, signal %d received from kernel, but no info value, info: 0x%p\n",
__func__, signal, info);
}
}
/* Singal Handler that will be fired when we receive DCI data */
void dci_data_handler(int signal)
{
(void)signal;
/* Do something here when you receive DCI data. */
/* This is usually for holding wakelocks when the
clients are running in Diag Non Real Time mode
or when they know the Apps processor is in deep
sleep but they still need to process DCI data.
Please Note: Wakelocks must be released
after processing the data in the respective
response/log/event handler. Failure to do so
will affect the power consumption of the Apps
processor. */
}
void process_dci_log_stream(unsigned char *ptr, int len)
{
int i, found = 0;
for (i = 0; i < TOTAL_LOG_CODES; i++) {
if (*(uint16 *)(ptr + 2) == log_codes[i].log_code) {
DIAG_LOGE(" Received a Log of type %s, length = %d\n", log_codes[i].name, len);
found = 1;
break;
}
}
for (i = 0; i < TOTAL_LOG_CODES_APPS && !found; i++) {
if (*(uint16 *)(ptr + 2) == log_codes_apps[i].log_code) {
DIAG_LOGE(" Received a Log of type %s, length = %d\n", log_codes_apps[i].name, len);
break;
}
}
if (*(uint8 *)ptr == 0x98) {
DIAG_LOGE(" Received an EXT API LOG PKT %d bytes\n", len);
print_bytes(ptr, len, FALSE);
}
print_bytes(ptr, len, FALSE);
}
void process_dci_event_stream(unsigned char *ptr, int len)
{
if (*(uint8 *)ptr == 0x98) {
DIAG_LOGE(" Received an EXT API EVENT PKT %d bytes\n", len);
print_bytes(ptr, len, FALSE);
return;
}
DIAG_LOGE(" Received an event of size %d bytes\n", len);
print_bytes(ptr, len, FALSE);
}
void process_response(unsigned char *ptr, int len, void *data_ptr)
{
int i = 0;
uint8 operation = 0;
(void)data_ptr;
if (!ptr || len < 0)
return;
DIAG_LOGE(" Received Response of size %d bytes.\n", len);
print_bytes(ptr, len, TRUE);
/* Parsing Logic for the response - Based on the request in this sample */
if (len <= DIAG_STRESS_TEST_OP_IDX)
return;
operation = ptr[DIAG_STRESS_TEST_OP_IDX];
if (ptr[DIAG_CMD_CODE_IDX] == DIAG_SUBSYS_CMD_F &&
ptr[DIAG_SUBSYS_ID_IDX] == DIAG_SUBSYS_DIAG_SERV) {
DIAG_LOGE(" Command Code: Diag\n");
DIAG_LOGE(" Subsystem ID: Diag\n");
if (operation <= DIAGDIAG_STRESS_TEST_ERR_FATAL) {
DIAG_LOGE(" Test for: F3s\n");
} else if (operation == DIAGDIAG_STRESS_TEST_LOG) {
DIAG_LOGE(" Test for: Logs\n");
} else if (operation == DIAGDIAG_STRESS_TEST_EVENT_NO_PAYLOAD) {
DIAG_LOGE(" Test for: Events without payload\n");
} else if (operation == DIAGDIAG_STRESS_TEST_EVENT_WITH_PAYLOAD) {
DIAG_LOGE(" Test for: Events with payload\n");
}
}
printf("\n");
}
/* Main Function. This demonstrates using the DCI APIs defined in diag_lsm_dci.h*/
int main(int argc, char *argv[])
{
int err, client_id;
int signal_type = SIGCONT;
boolean bInit_success = FALSE;
diag_dci_peripherals list = DIAG_CON_MPSS | DIAG_CON_APSS | DIAG_CON_LPASS;
struct diag_dci_health_stats *dci_health_stats; /* To collect DCI Health Statistics */
unsigned char *dci_rsp_pkt = NULL;
(void)argc;
(void)argv;
/* Signal handling to handle SSR */
struct sigaction notify_action;
sigemptyset(&notify_action.sa_mask);
notify_action.sa_sigaction = notify_handler;
/* Use SA_SIGINFO to denote we are expecting data with the signal */
notify_action.sa_flags = SA_SIGINFO;
sigaction(signal_type, &notify_action, NULL);
/* Signal handling for DCI Data */
struct sigaction dci_data_action;
sigemptyset(&dci_data_action.sa_mask);
dci_data_action.sa_handler = dci_data_handler;
dci_data_action.sa_flags = 0;
sigaction(DIAG_SAMPLE_SIGNAL, &dci_data_action, NULL);
parse_args(argc, argv);
/* Registering with Diag which gives the client a handle to the Diag driver */
bInit_success = Diag_LSM_Init(NULL);
if (!bInit_success) {
DIAG_LOGE(" Couldn't register with Diag LSM, errno: %d\n", errno);
return -1;
}
dci_rsp_pkt = (unsigned char *)malloc(DIAG_MAX_RX_PKT_SIZ);
if (!dci_rsp_pkt) {
DIAG_LOGE(" Unable to allocate memory for DCI rsp pkt, errno: %d", errno);
return -1;
}
/* Registering with DCI - This assigns a client ID */
/* Channel 0 - MSM, 1 - MDM */
err = diag_register_dci_client(&client_id, &list, channel, &signal_type);
if (err != DIAG_DCI_NO_ERROR) {
DIAG_LOGE(" Could not register with DCI, err: %d, errno: %d\n", err, errno);
free(dci_rsp_pkt);
return -1;
} else
DIAG_LOGE(" Successfully registered with DCI, client ID = %d\n", client_id);
err = diag_register_dci_signal_data(client_id, DIAG_SAMPLE_SIGNAL);
if (err != DIAG_DCI_NO_ERROR) {
DIAG_LOGE(" Could not register signal for DCI Data, err: %d, errno: %d\n", err, errno);
free(dci_rsp_pkt);
return -1;
}
/* Getting supported Peripherals list*/
DIAG_LOGE(" DCI Status on Processors:\n");
err = diag_get_dci_support_list_proc(channel, &list);
if (err != DIAG_DCI_NO_ERROR) {
printf(" Could not get support list, err: %d, errno: %d\n", err, errno);
free(dci_rsp_pkt);
return -1;
}
DIAG_LOGE(" MPSS:\t ");
DIAG_LOGE((list & DIAG_CON_MPSS) ? "UP\n" : "DOWN\n");
DIAG_LOGE(" LPASS:\t ");
DIAG_LOGE((list & DIAG_CON_LPASS) ? "UP\n" : "DOWN\n");
DIAG_LOGE(" WCNSS:\t ");
DIAG_LOGE((list & DIAG_CON_WCNSS) ? "UP\n" : "DOWN\n");
DIAG_LOGE(" APSS:\t ");
DIAG_LOGE((list & DIAG_CON_APSS) ? "UP\n" : "DOWN\n");
/* Initializing Log and Event streaming by registering
listeners - This is required to receive Logs and Events */
DIAG_LOGE(" Opening Data Stream, registering listeners\n");
err = diag_register_dci_stream_proc(client_id, process_dci_log_stream, process_dci_event_stream);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Unable to register DCI stream, err: %d, errno: %d\n", err, errno);
printf("\n");
DIAG_LOGE(" Sending Asynchronous Command \n");
/* Diag Log stress test command - one Log packet comes out every second */
unsigned char buf[24] = {75, 18, 0, 0, 1, 0, 0, 0, 16, 1, 1, 0, 0, 1, 0, 0, 232, 3, 0, 0, 1, 0, 0, 0};
err = diag_send_dci_async_req(client_id, buf, 24, dci_rsp_pkt, DIAG_MAX_RX_PKT_SIZ, &process_response, NULL);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SEND_REQUEST_ASYNC to peripheral %d\n", err);
sleep(1);
printf("\n");
/* Setting Log masks ----------------------------
0x115F - Diag Stress Test Log
-------------------------------------------*/
DIAG_LOGE(" Setting Log masks\n");
DIAG_LOGE(" [0x115F] Diag Stress Test Log\n");
uint16 log_codes_array[TOTAL_LOG_CODES] = { LOG_DIAG_STRESS_TEST_C };
err = diag_log_stream_config(client_id, ENABLE, log_codes_array, TOTAL_LOG_CODES);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SET_LOG_MASK to peripheral, err: %d, errno: %d\n", err, errno);
/* Putting the thread to sleep for 30 seconds. The client must sleep for the time it
wants to receive logs/events/command responses */
sleep(30);
printf("\n");
/* Display Health Statistics */
DIAG_LOGE(" Modem Health Statistics on the Apps processor:\n");
dci_health_stats = malloc(sizeof(struct diag_dci_health_stats));
if (!dci_health_stats) {
DIAG_LOGE(" Unable to allocate memory for DCI health stats, errno: %d", errno);
free(dci_rsp_pkt);
return -1;
}
err = diag_get_health_stats_proc(client_id, dci_health_stats, DIAG_MODEM_PROC);
if (err == DIAG_DCI_NO_ERROR) {
DIAG_LOGE(" Log Drop Count for Modem:\t%d\n", dci_health_stats->dropped_logs);
DIAG_LOGE(" Log Total Count for Modem:\t%d\n", dci_health_stats->received_logs);
DIAG_LOGE(" Event Drop Count for Modem:\t%d\n", dci_health_stats->dropped_events);
DIAG_LOGE(" Event Total Count for Modem:\t%d\n", dci_health_stats->received_events);
} else
DIAG_LOGE(" Error in collecting statistics, err: %d, errno: %d\n", err, errno);
sleep(1);
printf("\n");
/* Clearing these log masks ------------------------
0x115F - Diag Stress Test Log
---------------------------------------------------- */
DIAG_LOGE(" Clearing log masks\n");
DIAG_LOGE(" [0x115F] Diag Stress Test Log\n");
err = diag_log_stream_config(client_id, DISABLE, log_codes_array, TOTAL_LOG_CODES);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending CLEAR_LOG_MASK to peripheral, err: %d, errno: %d\n", err, errno);
sleep(5);
printf("\n");
/* Setting Log masks ----------------------------
0x117B - WMS Set Routes
0x11EB - DPL Log Messages
0x1160 - WMS Read
-------------------------------------------*/
DIAG_LOGE(" *** To generate the following logs on APSS, please run the test_diag app\n");
DIAG_LOGE(" Setting Log masks\n");
DIAG_LOGE(" [0x117B] WMS Set Routes\n");
DIAG_LOGE(" [0x11EB] DPL Log Messages\n");
DIAG_LOGE(" [0x1160] WMS Read\n");
uint16 log_codes_array_apps[TOTAL_LOG_CODES_APPS] = { LOG_WMS_SET_ROUTES_C,
LOG_DATA_PROTOCOL_LOGGING_C,
LOG_WMS_READ_C };
err = diag_log_stream_config(client_id, ENABLE, log_codes_array_apps, TOTAL_LOG_CODES_APPS);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SET_LOG_MASK to peripheral, err: %d, errno: %d\n", err, errno);
/* Putting the thread to sleep for 30 seconds. The client must sleep for the time it
wants to receive logs/events/command responses */
sleep(30);
printf("\n");
/* Display Health Statistics */
DIAG_LOGE(" Health statistics for the Application processor Data:\n");
err = diag_get_health_stats_proc(client_id, dci_health_stats, DIAG_APPS_PROC);
if (err == DIAG_DCI_NO_ERROR) {
DIAG_LOGE(" Log Drop Count for APSS:\t%d\n", dci_health_stats->dropped_logs);
DIAG_LOGE(" Log Total Count for APSS:\t%d\n", dci_health_stats->received_logs);
DIAG_LOGE(" Event Drop Count for APSS:\t%d\n", dci_health_stats->dropped_events);
DIAG_LOGE(" Event Total Count for APSS:\t%d\n", dci_health_stats->received_events);
} else
DIAG_LOGE(" Error in collecting statistics, err: %d, errno: %d\n", err, errno);
sleep(1);
printf("\n");
/* Clearing these log masks ------------------------
0x117B - WMS Set Routes
0x11EB - DPL Log Messages
0x1160 - WMS Read
---------------------------------------------------- */
DIAG_LOGE(" Clearing log masks\n");
DIAG_LOGE(" [0x117B] WMS Set Routes\n");
DIAG_LOGE(" [0x11EB] DPL Log Messages\n");
DIAG_LOGE(" [0x1160] WMS Read\n");
err = diag_log_stream_config(client_id, DISABLE, log_codes_array_apps, TOTAL_LOG_CODES_APPS);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending CLEAR_LOG_MASK to peripheral, err: %d, errno: %d\n", err, errno);
sleep(5);
printf("\n");
DIAG_LOGE(" ##### STARTING Ext API Log Packets unit test #####\n");
DIAG_LOGE(" Registering for Version 1 of DCI (EXT Header Support)");
err = diag_dci_set_version(client_id, 1);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error registering version to DCI %d\n", err);
DIAG_LOGE(" Sending Asynchronous Command for Ext API Log Packets\n");
/* Diag Log stress test command - one Log packet comes out every second */
unsigned char log_ext[24] = {75, 18, 0, 0, 1, 0, 0, 0, 57, 1, 1, 0, 0, 1, 0, 0, 232, 3, 0, 0, 1, 0, 0, 0};
err = diag_send_dci_async_req(client_id, log_ext, 24, dci_rsp_pkt, DIAG_MAX_RX_PKT_SIZ, &process_response, NULL);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SEND_REQUEST_ASYNC to peripheral %d\n", err);
/* Diag Events w/ payload test command - one Log packet comes out every second */
DIAG_LOGE(" Sending Asynchronous Command for Ext API Event Packets\n");
unsigned char event_ext[24] = {75, 18, 0, 0, 1, 0, 0, 0, 70, 1, 1, 0, 0, 1, 0, 0, 232, 3, 0, 0, 1, 0, 0, 0};
err = diag_send_dci_async_req(client_id, event_ext, 24, dci_rsp_pkt, DIAG_MAX_RX_PKT_SIZ, &process_response, NULL);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SEND_REQUEST_ASYNC to peripheral %d\n", err);
sleep(1);
printf("\n");
/* Setting Log masks ----------------------------
0x115F - Diag Stress Test Log
-------------------------------------------*/
DIAG_LOGE(" Setting Log masks\n");
DIAG_LOGE(" [0x115F] Diag Stress Test Log\n");
err = diag_log_stream_config(client_id, ENABLE, log_codes_array, TOTAL_LOG_CODES);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SET_LOG_MASK to peripheral, err: %d, errno: %d\n", err, errno);
/* Setting Log masks ----------------------------
0x115F - Diag Stress Test Event
-------------------------------------------*/
DIAG_LOGE(" Setting Event masks\n");
DIAG_LOGE(" EVENT_DIAG_STRESS_TEST_NO_PAYLOAD\n");
DIAG_LOGE(" EVENT_DIAG_STRESS_TEST_WITH_PAYLOAD\n");
DIAG_LOGE(" EVENT_DIAG_STRESS_TEST_COMPLETED\n");
DIAG_LOGE(" EVENT_DIAG_DROP_DEBUG\n");
int event_codes_array[TOTAL_EVENT_CODES] = {
EVENT_DIAG_STRESS_TEST_NO_PAYLOAD,
EVENT_DIAG_STRESS_TEST_WITH_PAYLOAD,
EVENT_DIAG_STRESS_TEST_COMPLETED,
EVENT_DIAG_DROP_DEBUG
};
err = diag_event_stream_config(client_id, ENABLE, event_codes_array, TOTAL_EVENT_CODES);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending SET_EVENT_MASK to peripheral, err: %d, errno: %d\n", err, errno);
/* Putting the thread to sleep for 30 seconds. The client must sleep for the time it
wants to receive logs/events/command responses */
sleep(30);
printf("\n");
/* Test Ext Header stripping for dci clients that do not support version 1 of DCI */
DIAG_LOGE(" Un-Registering for Version 1 of DCI (EXT Header Support)");
err = diag_dci_set_version(client_id, 0);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error registering version to DCI %d\n", err);
sleep(30);
printf("\n");
/* Display Health Statistics */
DIAG_LOGE(" Modem Health Statistics on the Apps processor:\n");
dci_health_stats = malloc(sizeof(struct diag_dci_health_stats));
if (!dci_health_stats) {
DIAG_LOGE(" Unable to allocate memory for DCI health stats, errno: %d", errno);
free(dci_rsp_pkt);
return -1;
}
err = diag_get_health_stats_proc(client_id, dci_health_stats, DIAG_MODEM_PROC);
if (err == DIAG_DCI_NO_ERROR) {
DIAG_LOGE(" Log Drop Count for Modem:\t%d\n", dci_health_stats->dropped_logs);
DIAG_LOGE(" Log Total Count for Modem:\t%d\n", dci_health_stats->received_logs);
DIAG_LOGE(" Event Drop Count for Modem:\t%d\n", dci_health_stats->dropped_events);
DIAG_LOGE(" Event Total Count for Modem:\t%d\n", dci_health_stats->received_events);
} else
DIAG_LOGE(" Error in collecting statistics, err: %d, errno: %d\n", err, errno);
sleep(1);
printf("\n");
/* Clearing these log masks ------------------------
0x115F - Diag Stress Test Log
---------------------------------------------------- */
DIAG_LOGE(" Clearing log masks\n");
DIAG_LOGE(" [0x115F] Diag Stress Test Log\n");
err = diag_log_stream_config(client_id, DISABLE, log_codes_array, TOTAL_LOG_CODES);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending CLEAR_LOG_MASK to peripheral, err: %d, errno: %d\n", err, errno);
/* Clearing Event masks ----------------------------
0x115F - Diag Stress Test Event
-------------------------------------------*/
DIAG_LOGE(" Clearing event masks\n");
DIAG_LOGE(" EVENT_DIAG_STRESS_TEST_NO_PAYLOAD\n");
DIAG_LOGE(" EVENT_DIAG_STRESS_TEST_WITH_PAYLOAD\n");
DIAG_LOGE(" EVENT_DIAG_STRESS_TEST_COMPLETED\n");
DIAG_LOGE(" EVENT_DIAG_DROP_DEBUG\n");
err = diag_event_stream_config(client_id, DISABLE, event_codes_array, TOTAL_EVENT_CODES);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error sending CLEAR_EVENT_MASK to peripheral, err: %d, errno: %d\n", err, errno);
/* Releasing DCI connection */
DIAG_LOGE(" Releasing DCI connection \n");
err = diag_release_dci_client(&client_id);
if (err != DIAG_DCI_NO_ERROR)
DIAG_LOGE(" Error releasing DCI connection, err: %d, errno: %d\n", err, errno);
Diag_LSM_DeInit();
printf("\n");
free(dci_health_stats);
free(dci_rsp_pkt);
return 0;
}

10
feeds/wifi-ax/qca-diag/src/diag.pc.in Executable file
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prefix=@prefix@
exec_prefix=@exec_prefix@
libdir=@libdir@
includedir=@includedir@
Name: diag
Description: Common functions for DIAG project test assets
Version: @VERSION@
Libs: -L${libdir} -ldiag
Cflags: -I${includedir}/diag

54
feeds/wifi-ax/qca-diag/src/include/comdef.h Executable file
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/*
* Copyright (c) 2017-2018 Qualcomm Technologies, Inc.
*
* All Rights Reserved.
* Confidential and Proprietary - Qualcomm Technologies, Inc.
*/
#ifndef __COMDEF_H
#define __COMDEF_H
#define PACK(x) x __attribute__((__packed__))
#define TRUE 1
#define FALSE 0
#define QSDK_BUILD 1
#define FEATURE_LE_DIAG 1
#include <stdint.h>
/*
* type defs
*/
typedef uint8_t boolean; /* Boolean value type. */
typedef uint32_t uint32; /* Unsigned 32 bit value */
typedef uint16_t uint16; /* Unsigned 16 bit value */
typedef uint8_t uint8; /* Unsigned 8 bit value */
typedef int32_t int32; /* Signed 32 bit value */
typedef int16_t int16; /* Signed 16 bit value */
typedef int8_t int8; /* Signed 8 bit value */
typedef uint64_t uint64;
typedef uint8_t byte;
typedef uint32_t dword;
typedef uint16_t word;
#if __SIZEOF_POINTER__ == 4
# define FPOS( type, field ) \
/*lint -e545 */ ( (dword) &(( type *) 0)-> field) /*lint +e545 */
#else
# define FPOS( type, field ) \
/*lint -e545 */ ((uint64) &(( type *) 0)-> field) /*lint +e545 */
#endif
#define FSIZ( type, field ) sizeof( ((type *) 0)->field )
#ifndef MAX
#define MAX( x, y ) ( ((x) > (y)) ? (x) : (y) )
#endif
#ifndef MIN
#define MIN( x, y ) ( ((x) < (y)) ? (x) : (y) )
#endif
#endif /* END _COMDEF_H */

232
feeds/wifi-ax/qca-diag/src/include/diag.h Executable file
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#ifndef DIAG_H
#define DIAG_H
/*==========================================================================
Diagnostic Task Header File
Description
Global Data declarations of the diag_task.
# Copyright (c) 2007-2011, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.===========================================================================*/
/*===========================================================================
Edit History
$Header: //depot/asic/msmshared/services/diag/DIAG_7K/diag.h#5 $
when who what, where, why
-------- --- ----------------------------------------------------------
12/22/06 as Moved proc ID macros to diag.h
12/05/06 as Added signal for Diag drain timer
11/21/06 as Moved DIAG internal features from diagi.h to diag.h
03/30/05 sl Added support for SPC_UNLOCK_TTL to unlock/lock the sp_state
10/17/03 ph For Rel A builds, redirect to new MC subsystem command.
09/23/03 gr Function prototypes related to changes that enable more
efficient detection of the condition where diag is out of
heap space.
08/20/01 jal Changes to support more Diag packets. Support for powerup
online/offline state, service programming lock state.
04/06/01 lad Cosmetic changes.
02/23/01 lad Rearchitected the diagnostics subsystem to be a service
rather than a module. All coupling to targets has been
moved to target-specific implementations. This file now
contains an API. No other information or coupling remains
except for featurized legacy code that impacts existing
targets.
Old history comments have been removed since most of them
are no longer applicable.
===========================================================================*/
/* -------------------------------------------------------------------------
** Definitions and Declarations
** ------------------------------------------------------------------------- */
/* Diagnostics version (protocol revision).
*/
/* DIAG_DIAGVER
Diagnostics version, used to ensure compatibility of the DM and the DMSS.
1 Original
2 Changes to status packet and verno packet. Removed verstr packet
3 for release to factory. Sends RF mode in status packet
4 Adds release directory to verno packet and dipswitch packets
5 Many changes in DM.
6 Added Vocoder PCM and PKT loopback, and Analog IS-55 tests
7 New FER data in tagraph packet
8 Streaming protocol enhancements and event reporting.
*/
#ifdef FEATURE_DIAG_NON_STREAMING
#define DIAG_DIAGVER 7
#else
#define DIAG_DIAGVER 8
#endif
/* -------------------------------------------------------------------------
** Diag Internal features
** ------------------------------------------------------------------------- */
/* Group all standalone features */
#if (defined(FEATURE_STANDALONE) || defined(FEATURE_STANDALONE_APPS) || \
defined(FEATURE_STANDALONE_MODEM))
#define DIAG_STANDALONE
#endif
/* Multi processor Diag */
#if defined(FEATURE_MULTIPROCESSOR) && !(defined(DIAG_STANDALONE))
#define DIAG_MP
#endif
#define DIAG_MODEM_PROC 0
#define DIAG_APP_PROC 1
#define DIAG_DUAL_PROC 2
#if defined (DIAG_MP)
#if defined (FEATURE_DIAG_MP_MASTER_MODEM)
/* Master DIAG is on Modem Processor */
#if defined (IMAGE_MODEM_PROC)
#define DIAG_MP_MASTER IMAGE_MODEM_PROC
#undef DIAG_MP_SLAVE
#endif
#if defined (IMAGE_APPS_PROC)
#define DIAG_MP_SLAVE IMAGE_APPS_PROC
#undef DIAG_MP_MASTER
#endif
#define DIAGPKT_REQ_FWD_PROC DIAG_APP_PROC
#elif defined (FEATURE_DIAG_MP_MASTER_APPS)
/* Master DIAG is on Apps Processor */
#if defined (IMAGE_APPS_PROC)
#define DIAG_MP_MASTER IMAGE_APPS_PROC
#undef DIAG_MP_SLAVE
/* Mobile View code */
#define DIAG_MV_CMD_RPC
#endif
#if defined (IMAGE_MODEM_PROC)
#define DIAG_MP_SLAVE IMAGE_MODEM_PROC
#undef DIAG_MP_MASTER
#endif
#define DIAGPKT_REQ_FWD_PROC DIAG_MODEM_PROC
#elif defined (FEATURE_DIAG_MP_MODEM_ONLY)
/* Should be same as single processor DIAG_SINGLE_PROC */
#else
#error "Select where master diag should be"
#endif
#else
/* Should be same as single processor DIAG_SINGLE_PROC*/
#endif
/* Runtime Device Map port selection for diag */
#if defined (FEATURE_RUNTIME_DEVMAP)
#if defined (DIAG_MP)
#if defined (DIAG_MP_MASTER)|| defined(FEATURE_DIAG_MP_MODEM_ONLY)
#define DIAG_RUNTIME_DEVMAP
#endif
#else
#define DIAG_RUNTIME_DEVMAP
#endif
#endif
#if defined DIAG_MP
#if defined (DIAG_MP_MASTER)
#define DIAG_REQ_FWD /* Fowards requests to the slave proc */
#define DIAG_NO_DSM_CHAINING
#define DIAG_FRAMING
#define DIAG_SIO_USB
#elif defined (DIAG_MP_SLAVE)
#define DIAG_RSP_SEND /* sends response */
#endif
#if defined (FEATURE_DIAG_MP_MODEM_ONLY)
#define DIAG_NO_DSM_CHAINING
#define DIAG_FRAMING
#define DIAG_RSP_SEND /* sends response */
#undef DIAG_REQ_FWD
#endif
#else /*DIAG_MP */
/* Single processor or standalone builds */
#define DIAG_NO_DSM_CHAINING
#define DIAG_FRAMING
#define DIAG_RSP_SEND /* sends response */
#endif /*DIAG_MP*/
/* Error cases */
#if defined (DIAG_MP) && !defined(FEATURE_SMD)
#error "Error: FEATURE_SND is required for DIAG_MP"
#endif
#if defined (FEATURE_DIAG_MP_MODEM_ONLY) && \
!(defined (DIAG_MP) || defined (IMAGE_MODEM_PROC))
#error "Error: Invalid configuration for DIAG MP"
#endif
#if defined (DIAG_MP_MASTER)
#if defined (DIAG_RSP_SEND)
#error "Error DIAG_RSP_SEND defined on Master"
#endif
#endif
#if defined (DIAG_MP_SLAVE)
#if defined (DIAG_REQ_FWD)
#error "Error: DIAG_REQ_FWD defined on Slave"
#endif
#if defined (DIAG_NO_DSM_CHAINING)
#error "Error: DIAG_NO_DSM_CHAINING defined on Slave"
#endif
#if defined (DIAG_FRAMING)
#error "Error: DIAG_FRAMING defined on Slave"
#endif
#endif
#define DIAG_FTM_SWITCH_VAL 2
/* This structure is sent to an event listener when an event is processed.
The implementation relies on the format of this structure. It is
dangerous to change this format of this structure. */
#ifdef __cplusplus
extern "C"
{
#endif
typedef struct
{
unsigned int event_id; /* event ID */
//qword ts; /* 8-byte CDMA time stamp. */
uint32 ts_lo; /* Time stamp */
uint32 ts_hi;
uint8 length; /* length of the payload */
/* Payload of size 'length': */
uint8 payload[255]; /* payload, if length > 0 */
}
diag_event_type;
/*===========================================================================
FUNCTION TYPE DIAG_CMD_RSP
DESCRIPTION
This function type is provided by the caller when sending a request packet
using diag_cmd_req(). After the request is processed, this function is
called (if specified) with a pointer to the response packet and the handle
returned from the corresponding diag_cmd_req() call.
Memory is owned by the DIAG task and is freed when this function returns.
'param' is the unmodified value from the corresponding diag_cmd_req() call.
RETURN VALUE
None.
===========================================================================*/
typedef void (*diag_cmd_rsp) (const byte *rsp, unsigned int length,
void *param);
#ifdef __cplusplus
}
#endif
#endif /* DIAG_H */

553
feeds/wifi-ax/qca-diag/src/include/diag_lsm.h Executable file
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#ifndef DIAG_LSM_H
#define DIAG_LSM_H
#ifdef __cplusplus
extern "C" {
#endif
/*===========================================================================
Diag Mapping Layer DLL declarations
DESCRIPTION
Function declarations for Diag Service Mapping Layer
Copyright (c)2007-2012, 2014-2016 Qualcomm Technologies, Inc.
All Rights Reserved.
Confidential and Proprietary - Qualcomm Technologies, Inc.
===========================================================================*/
/*===========================================================================
EDIT HISTORY FOR MODULE
This section contains comments describing changes made to the module.
Notice that changes are listed in reverse chronological order.
$Header:
when who what, where, why
-------- --- ----------------------------------------------------------
02/04/08 mad Added declarations for Diag_LSM_Init and DeInit functions
to enable diag clients to call these directly.
Moved IDiagPkt handle declaration to an internal header
file, Diag_LSMi.h
11/29/07 mad Created File
===========================================================================*/
#define MSG_MASKS_TYPE 0x00000001
#define LOG_MASKS_TYPE 0x00000002
#define EVENT_MASKS_TYPE 0x00000004
#define PKT_TYPE 0x00000008
#define DEINIT_TYPE 0x00000010
#define USER_SPACE_DATA_TYPE 0x00000020
#define DCI_DATA_TYPE 0x00000040
#define USER_SPACE_RAW_DATA_TYPE 0x00000080
#define DCI_LOG_MASKS_TYPE 0x00000100
#define DCI_EVENT_MASKS_TYPE 0x00000200
#define DCI_PKT_TYPE 0x00000400
#define HDLC_SUPPORT_TYPE 0x00001000
#define USB_MODE 1
#define MEMORY_DEVICE_MODE 2
#define NO_LOGGING_MODE 3
#define UART_MODE 4
#define SOCKET_MODE 5
#define CALLBACK_MODE 6
#define MAX_NUM_FILES_ON_DEVICE 2000 /* If user wants to stop logging on SD after reaching a max file limit */
#define CONTROL_CHAR 0x7E
#define FILE_NAME_LEN 500
#define NUM_PROC 10
/* Token to identify MDM log */
#define MDM_TOKEN -1
#define MDM2_TOKEN -2
/* Token to identify QSC log */
#define QSC_TOKEN -5
#define MSM 0
#define MDM 1
#define QSC 2
#define MODE_NONREALTIME 0
#define MODE_REALTIME 1
#define MODE_UNKNOWN 2
#define DIAG_PROC_DCI 1
#define DIAG_PROC_MEMORY_DEVICE 2
/* List of processors */
#define DIAG_ALL_PROC -1
#define DIAG_MODEM_PROC 0
#define DIAG_LPASS_PROC 1
#define DIAG_WCNSS_PROC 2
#define DIAG_SENSORS_PROC 3
#define NUM_PERIPHERALS 4
#define DIAG_APPS_PROC (NUM_PERIPHERALS)
#define DIAG_CON_APSS (0x0001) /* Bit mask for APSS */
#define DIAG_CON_MPSS (0x0002) /* Bit mask for MPSS */
#define DIAG_CON_LPASS (0x0004) /* Bit mask for LPASS */
#define DIAG_CON_WCNSS (0x0008) /* Bit mask for WCNSS */
#define DIAG_CON_SENSORS (0x0010) /* Bit mask for Sensors */
#define DIAG_CON_WDSP (0x0020)
#define DIAG_CON_CDSP (0x0040)
#define DIAG_CON_NPU (0x0080)
#define DIAG_CON_NONE (0x0000) /* Bit mask for No SS*/
#define DIAG_CON_ALL (DIAG_CON_APSS | DIAG_CON_MPSS \
| DIAG_CON_LPASS | DIAG_CON_WCNSS \
| DIAG_CON_SENSORS | DIAG_CON_WDSP \
| DIAG_CON_CDSP | DIAG_CON_NPU)
#define DIAG_MSM_MASK (0x0001) /* Bit mask for APSS */
#define DIAG_MDM_MASK (0x0002) /* Bit mask for MPSS */
#define DIAG_MDM2_MASK (0x0004) /* Bit mask for LPASS */
#define DIAG_STREAMING_MODE 0
#define DIAG_THRESHOLD_BUFFERING_MODE 1
#define DIAG_CIRCULAR_BUFFERING_MODE 2
#define DIAG_MD_NONE 0
#define DIAG_MD_PERIPHERAL 1
/*
* The status bit masks when received in a signal handler are to be
* used in conjunction with the peripheral list bit mask to determine the
* status for a peripheral. For instance, 0x00010002 would denote an open
* status on the MPSS
*/
#define DIAG_STATUS_OPEN (0x00010000) /* Bit mask for DCI channel open status */
#define DIAG_STATUS_CLOSED (0x00020000) /* Bit mask for DCI channel closed status */
#define GUID_LEN 16
#ifdef ANDROID
#define LOG_TAG "Diag_Lib"
#define DIAG_LOGE(...) { \
ALOGE(__VA_ARGS__); \
if (!diag_disable_console) \
printf(__VA_ARGS__); \
}
#include <cutils/log.h>
#include "common_log.h"
#else
#define DIAG_LOGE(...) printf (__VA_ARGS__)
#endif
#include <pthread.h>
#include <stdio.h>
#define GUID_LIST_XML_TAG_SIZE 13
#define GUID_LIST_END_XML_TAG_SIZE 20
#ifdef USE_GLIB
#define strlcpy g_strlcpy
#define strlcat g_strlcat
#endif
extern int logging_mode;
extern char mask_file[FILE_NAME_LEN];
extern char mask_file_mdm[FILE_NAME_LEN];
extern char output_dir[NUM_PROC][FILE_NAME_LEN];
extern int diag_disable_console;
extern char dir_name[FILE_NAME_LEN];
extern char proc_name[NUM_PROC][6];
extern pthread_cond_t qsr4_read_db_cond;
extern uint8 hdlc_disabled;
extern char qsr4_xml_file_name[FILE_NAME_LEN];
extern int fd_qsr4_xml[NUM_PROC];
typedef enum {
DB_PARSER_STATE_OFF,
DB_PARSER_STATE_ON,
DB_PARSER_STATE_LIST,
DB_PARSER_STATE_OPEN,
DB_PARSER_STATE_READ,
DB_PARSER_STATE_CLOSE,
} qsr4_db_file_parser_state;
/*
* Structure to keep track of diag callback interface clients. Please note that
* there can be only client communicating with an ASIC at a given time.
*
* @inited: flag to indicate if the table entry is initialized
* @cb_func_ptr: callback function pointer
* @context_data: user specified data
*
*/
struct diag_callback_tbl_t {
int inited;
int (*cb_func_ptr)(unsigned char *, int len, void *context_data);
void *context_data;
};
struct diag_uart_tbl_t {
int proc_type;
int pid;
int (*cb_func_ptr)(unsigned char *, int len, void *context_data);
void *context_data;
};
struct diag_con_all_param_t {
uint32 diag_con_all;
uint32 num_peripherals;
uint32 upd_map_supported;
};
struct diag_query_pid_t {
uint32 peripheral_mask;
uint32 pd_mask;
int pid;
uint32 device_mask;
};
struct diag_logging_mode_param_t {
uint32 req_mode;
uint32 peripheral_mask;
uint32 pd_mask;
uint8 mode_param;
uint8 diag_id;
uint8 pd_val;
uint8 reserved;
int peripheral;
uint32 device_mask;
};
/*===========================================================================
FUNCTION Diag_LSM_Init
DESCRIPTION
Initializes the Diag Legacy Mapping Layer. This should be called
only once per process.
DEPENDENCIES
Successful initialization requires Diag CS component files to be present
and accessible in the file system.
RETURN VALUE
FALSE = failure, else TRUE
SIDE EFFECTS
None
===========================================================================*/
boolean Diag_LSM_Init (byte* pIEnv);
/*===========================================================================
FUNCTION diag_switch_logging_proc
DESCRIPTION
This swtiches the logging mode from default USB to memory device logging
DEPENDENCIES
valid data type to be passed in:
RETURN VALUE
0 - Success; failure otherwise
SIDE EFFECTS
None
===========================================================================*/
int diag_switch_logging_proc(struct diag_logging_mode_param_t *params);
/*===========================================================================
FUNCTION diag_switch_logging
DESCRIPTION
This swtiches the logging mode from default USB to memory device logging
DEPENDENCIES
valid data type to be passed in:
In case of ODL second argument is to specifying directory location.
In case of UART mode second argument is specify PROC type.
RETURN VALUE
None
SIDE EFFECTS
None
===========================================================================*/
void diag_switch_logging(int requested_mode, char *dir_location);
/*===========================================================================
FUNCTION diag_read_mask_file
DESCRIPTION
This reads the mask file
DEPENDENCIES
valid data type to be passed in
RETURN VALUE
None
SIDE EFFECTS
None
===========================================================================*/
int diag_read_mask_file(void);
/*===========================================================================
FUNCTION diag_register_callback
DESCRIPTION
This allows diag client to register a callback function with LSM library.
If the library receives data from kernel space, it will invoke this call
back function, thus passing the data to the client through this function.
DEPENDENCIES
valid data type to be passed in
RETURN VALUE
None
SIDE EFFECTS
None
===========================================================================*/
void diag_register_callback(int (*client_cb_func_ptr)(unsigned char *ptr,
int len, void *context_data), void *context_data);
/*===========================================================================
FUNCTION diag_register_remote_callback
DESCRIPTION
This allows diag client to register a callback function with LSM library.
If the library receives data from kernel space originating from the remote
processor, it will invoke this call back function, thus passing the data
to the client through this function.
DEPENDENCIES
valid data type to be passed in
RETURN VALUE
None
SIDE EFFECTS
None
===========================================================================*/
void diag_register_remote_callback(int (*client_rmt_cb_func_ptr)(unsigned char *ptr,
int len, void *context_data), int proc,
void *context_data);
/*===========================================================================
FUNCTION diag_send_data
DESCRIPTION
Inject data into diag kernel driver
DEPENDENCIES
None.
RETURN VALUE
FALSE = failure, else TRUE.
SIDE EFFECTS
None
===========================================================================*/
int diag_send_data(unsigned char *, int);
/*===========================================================================
FUNCTION diag_callback_send_data
DESCRIPTION
Inject data into diag kernel driver for a specific processor in
callback mode
DEPENDENCIES
None.
RETURN VALUE
FALSE = failure, else TRUE.
SIDE EFFECTS
None
===========================================================================*/
int diag_callback_send_data(int proc, unsigned char * buf, int len);
/*===========================================================================
FUNCTION diag_callback_send_data_hdlc
DESCRIPTION
Inject hdlc data into diag kernel driver for a specific processor in
callback mode
DEPENDENCIES
None.
RETURN VALUE
FALSE = failure, else TRUE.
SIDE EFFECTS
None
===========================================================================*/
int diag_callback_send_data_hdlc(int proc, unsigned char * buf, int len);
/*===========================================================================
FUNCTION diag_vote_md_real_time
DESCRIPTION
Votes the on device logging process for real/non-real time
mode
DEPENDENCIES
None.
RETURN VALUE
0 = success, -1 = failure
SIDE EFFECTS
Puts the entire diag in the mode specified if the process wins
the vote
===========================================================================*/
int diag_vote_md_real_time(int real_time);
/*===========================================================================
FUNCTION diag_vote_md_real_time_proc
DESCRIPTION
Votes the on device logging process for real/non-real time
mode, in a particular processor.
DEPENDENCIES
None.
RETURN VALUE
0 = success, -1 = failure
SIDE EFFECTS
Puts the entire diag in the mode specified if the process wins
the vote
===========================================================================*/
int diag_vote_md_real_time_proc(int proc, int real_time);
/*===========================================================================
FUNCTION diag_get_real_time_status
DESCRIPTION
Gets the mode (real time or non real time) in which Diag is in
DEPENDENCIES
None.
RETURN VALUE
0 = success, -1 = failure
SIDE EFFECTS
None
===========================================================================*/
int diag_get_real_time_status(int *real_time);
/*===========================================================================
FUNCTION diag_get_real_time_status_proc
DESCRIPTION
Gets the mode (real time or non real time) in which Diag is
in, in a particular processor
DEPENDENCIES
None.
RETURN VALUE
0 = success, -1 = failure
SIDE EFFECTS
None
===========================================================================*/
int diag_get_real_time_status_proc(int proc, int *real_time);
/*===========================================================================
FUNCTION Diag_LSM_DeInit
DESCRIPTION
De-Initialize the Diag service.
DEPENDENCIES
None.
RETURN VALUE
FALSE = failure, else TRUE.
Currently all the internal boolean return functions called by
this function just returns TRUE w/o doing anything.
SIDE EFFECTS
None
===========================================================================*/
boolean Diag_LSM_DeInit(void);
/*===========================================================================
FUNCTION diag_configure_peripheral_buffering_tx_mode
DESCRIPTION
Configure the peripheral Diag's TX mode to Streaming, Circular, or
Threshold buffering mode and set high and low watermark threshold limits.
Streaming Mode is a default TX mode for peripheral Diag.
Switching to Threshold or Circular buffering mode puts the peripheral
Diag to Non-Real Time mode (NRT).
Switching to streaming mode will put the peripheral to Real Time (RT) mode.
DEPENDENCIES
None.
RETURN VALUE
1 = success, else failure
SIDE EFFECTS
Clients cannot vote for real/non-real time when the Tx mode is set
to Circular, or Threshold buffering mode.
===========================================================================*/
int diag_configure_peripheral_buffering_tx_mode(uint8 peripheral, uint8 tx_mode,
uint8 low_wm_val, uint8 high_wm_val);
/*===========================================================================
FUNCTION diag_peripheral_buffering_drain_immediate
DESCRIPTION
Request the peripheral to drain its Tx buffering pool immediately.
If peripheral Diag receives this request in
Streaming mode - No action is taken since Diag is already streaming.
Threshold or Circular buffering modes - Diag will drain its Tx buffering
pool until the low watermark threshold is reached, and then resume
buffering in the tx mode it was set
DEPENDENCIES
None.
RETURN VALUE
1 = success, else failure
SIDE EFFECTS
None
===========================================================================*/
int diag_peripheral_buffering_drain_immediate(uint8 peripheral);
#ifdef __cplusplus
}
#endif
#endif /* DIAG_LSM_H */

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feeds/wifi-ax/qca-diag/src/include/diag_lsm_dci.h Executable file
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#ifndef DIAG_LSM_DCI_H
#define DIAG_LSM_DCI_H
#ifdef __cplusplus
extern "C"
{
#endif
/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
# Copyright (c) 2012-2013, 2015-2016 by Qualcomm Technologies, Inc.
# All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
Diag Consumer Interface (DCI)
GENERAL DESCRIPTION
Headers specific to DCI.
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================
EDIT HISTORY FOR MODULE
$Header:
when who what, where, why
-------- --- ----------------------------------------------------------
10/09/12 RA Added Interface for DCI I/O
03/20/12 SJ Created
===========================================================================*/
/*strlcpy is from OpenBSD and not supported by Meego.
GNU has an equivalent g_strlcpy implementation into glib.
Featurized with compile time USE_GLIB flag for Meego builds.*/
#ifdef USE_GLIB
#define strlcpy g_strlcpy
#define strlcat g_strlcat
#include <pthread.h>
#include <signal.h>
#endif
/* This is a bit mask used for peripheral list. */
typedef uint16 diag_dci_peripherals;
#define ENABLE 1
#define DISABLE 0
#define IN_BUF_SIZE 16384
#define DIAG_INVALID_SIGNAL 0
#define DIAG_PROC_MSM 0
#define DIAG_PROC_MDM 1
/* This is used for health stats */
struct diag_dci_health_stats {
int dropped_logs;
int dropped_events;
int received_logs;
int received_events;
int reset_status;
};
/* List of possible error codes returned during DCI transaction */
enum {
DIAG_DCI_NO_ERROR = 1001, /* No error */
DIAG_DCI_NO_REG, /* Could not register */
DIAG_DCI_NO_MEM, /* Failed memory allocation */
DIAG_DCI_NOT_SUPPORTED, /* This particular client is not supported */
DIAG_DCI_HUGE_PACKET, /* Request/Response Packet too huge */
DIAG_DCI_SEND_DATA_FAIL, /* writing to kernel or remote peripheral fails */
DIAG_DCI_ERR_DEREG, /* Error while de-registering */
DIAG_DCI_PARAM_FAIL, /* Incorrect Parameter */
DIAG_DCI_DUP_CLIENT /* Client already exists for this proc */
} diag_dci_error_type;
/* ---------------------------------------------------------------------------
External functions
--------------------------------------------------------------------------- */
/* Initialization function required for DCI functions. Input parameters are:
a) pointer to an int which holds client id
b) pointer to a bit mask which holds peripheral information,
c) an integer to specify which processor to talk to (Local or Remote in the case of Fusion Devices),
d) void* for future needs (not implemented as of now) */
int diag_register_dci_client(int *, diag_dci_peripherals *, int, void *);
/* This API provides information about the peripherals that supports
DCI in the local processor. Input parameters are:
a) pointer to a diag_dci_peripherals variable to store the bit mask
DEPRECATED - Use diag_get_dci_support_list_proc instead. */
int diag_get_dci_support_list(diag_dci_peripherals *);
/* This API provides information about the peripherals that support
DCI in a given processor. Input Parameters are:
a) processor id
b) pointer to a diag_dci_peripherals variable to store the bit mask */
int diag_get_dci_support_list_proc(int proc, diag_dci_peripherals *list);
/* Version handshaking function. This will get the dci version of diag lsm */
int diag_dci_get_version(void);
/* Version handshaking function. This will register the version the client is using */
int diag_dci_set_version(int proc, int version);
/* Main command to send the DCI request. Input parameters are:
a) client ID generate earlier
b) request buffer
c) request buffer length
d) response buffer
e) response buffer length
f) call back function pointer
g) data pointer */
int diag_send_dci_async_req(int client_id, unsigned char buf[], int bytes, unsigned char *rsp_ptr, int rsp_len,
void (*func_ptr)(unsigned char *ptr, int len, void *data_ptr), void *data_ptr);
/* Closes DCI connection for this client. The client needs to pass a pointer
to the client id generated earlier */
int diag_release_dci_client(int *);
/* Used to set up log streaming to the client. This will send an array of log codes, which are desired
by client. Input parameters are:
1. Client ID
2. Boolean value telling to set or disable logs specified later
3. Array of log codes
4. Number of log codes specified in argument 3
*/
int diag_log_stream_config(int client_id, int set_mask, uint16 log_codes_array[], int num_codes);
/* Initialization function required for DCI streaming. Input parameters are:
call back function pointers.
DEPRECATED - Use diag_register_dci_stream_proc instead */
int diag_register_dci_stream(void (*func_ptr_logs)(unsigned char *ptr, int len),
void (*func_ptr_events)(unsigned char *ptr, int len));
int diag_register_dci_stream_proc(int client_id,
void(*func_ptr_logs)(unsigned char *ptr, int len),
void(*func_ptr_events)(unsigned char *ptr, int len));
/* Used to set up event streaming to the client. This will send an array of event ids, which are desired
by client. Input parameters are:
1. Client ID
2. Boolean value telling to set or disable event specified later
3. Array of event id
4. Number of event ids specified in argument 3
*/
int diag_event_stream_config(int client_id, int set_mask, int event_id_array[], int num_codes);
/* Used to query DCI statistics on all processors for logs & events.
DEPRECATED - Use diag_get_health_stats_proc instead */
int diag_get_health_stats(struct diag_dci_health_stats *dci_health);
/* Used to query DCI statistics on a specific processor for logs & events */
int diag_get_health_stats_proc(int client_id, struct diag_dci_health_stats *dci_health, int proc);
/* Queries a given Log Code to check if it is enabled or not. Input parameters are:
1. Client ID
2. Log Code that needs to be checked
3. Pointer to boolean to store the result */
int diag_get_log_status(int client_id, uint16 log_code, boolean *value);
/* Queries a given Event ID to check if it is enabled or not. Input parameters are:
1. Client ID
2. Event ID that needs to be checked
3. Pointer to boolean to store the result */
int diag_get_event_status(int client_id, uint16 event_id, boolean *value);
/* Disables all the Log Codes for a given client. The Input parameters are:
1. Client ID */
int diag_disable_all_logs(int client_id);
/* Disables all the Event ID for a given client. The Input parameters are:
1. Client ID */
int diag_disable_all_events(int client_id);
/* Votes for real time or non real time mode. The Input paramters are:
1. Client ID
2. The desired mode - MODE_REALTIME or MODE_NONREALTIME */
int diag_dci_vote_real_time(int client_id, int real_time);
/* Gets the current mode (Real time or Non Real Time ) Diag is in.
The Input parameters are:
1. A pointer to an integer that will hold the result */
int diag_dci_get_real_time_status(int *real_time);
/* Gets the current mode (Real time or Non Real Time ) Diag is
in, in the requested processor. The Input parameters are:
1. processor the client is interested in
2. A pointer to an integer that will hold the result*/
int diag_dci_get_real_time_status_proc(int proc, int *real_time);
/* Registers a signal to be fired on receiving DCI data from
the peripherals. The input parameters are:
1. Client ID
2. Signal Type */
int diag_register_dci_signal_data(int client_id, int signal_type);
/* Disables the signal that fires on receiving DCI data from
the peripherals. The input parameters are:
1. Client ID
2. Signal Type */
int diag_deregister_dci_signal_data(int client_id);
#ifdef __cplusplus
}
#endif
#endif /* DIAG_LSM_DCI_H */

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feeds/wifi-ax/qca-diag/src/include/diagcmd.h Executable file
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#ifndef DIAGCMD_H
#define DIAGCMD_H
/*!
@ingroup packet_service
@file diagcmd.h
@brief
Diagnostic Services Packet Processing Command Code Defintions
@details
This file contains packet id definitions and enumeration constants for subsystem identifiers (diagpkt_subsys_cmd_enum_type)
for the serial interface to the dmss. All packets must have unique identifiers (command codes). Once published, an identifier cannot
be changed. Subsystem identifiers (SSIDs) allow each technology area to define, grow, and maintain a list of unique packet identifiers
without coordinating with each other. It is required that all clients of the diagnostic dispatching service use the subsystem commands.
Subsystem Identifiers 250 to 254 are reserved for OEMs use only .Please refer to the documentation of 80-V1294-1 for the packet request/response
defintions of each packet id .
@note
DO NOT MODIFY THIS FILE WITHOUT PRIOR APPROVAL
Diag commands, by design, are a tightly controlled set of values.
Developers may not create command IDs at will.
Request new commands using the following process:
1. Send email to asw.diag.request requesting command ID assignments.
2. Identify the command needed by name.
3. Provide a brief description for the command.
*/
/*
Copyright (c) 1993-2015 by Qualcomm Technologies, Incorporated. All Rights Reserved.
*/
/*===========================================================================
Edit History
$Header: //source/qcom/qct/core/api/services/diag/main/latest/diagcmd.h#48 $
when who what, where, why
-------- --- ----------------------------------------------------------
08/04/14 xy Added DIAG_SUBSYS_AOSTLM_TEST
06/18/14 xy Added DIAG_SUBSYS_STORAGE and DIAG_SUBSYS_WCI2
11/13/13 xy Added DIAG_QSR4_EXT_MSG_TERSE_F
10/09/13 xy Added DIAG_SUBSYS_IMS_QVP_RTP
09/25/13 xy Added DIAG_SUBSYS_LWIP
08/26/13 sr Added DIAG_SUBSYS_CNSS_POWER
06/26/13 sr Added DIAG_SUBSYS_SYSTEM_OPERATIONS
05/31/13 sr Removed the peek and poke cmds
05/08/13 sr Added DIAG_SUBSYS_DS_IPA
03/22/13 sr Added DIAG_SUBSYS_LIMITSMGR
10/23/12 sr Added DIAG_SUBSYS_FTM_ANT
09/19/12 rh Added DIAG_SUBSYS_TTLITE
09/17/12 rh Added DIAG_SUBSYS_GNSS_SOC
08/13/12 rh Added DIAG_SUBSYS_CXM
06/22/12 rh Added subsystem ID for QDSS
06/06/12 rh Added subsystem ID DIAG_SUBSYS_MPOWER
01/16/12 tbg Added Secure Service Module error response
01/03/12 is Add subsystem ID for TDSCDMA
10/21/11 rh CMAPI subsystem id added
10/18/11 hm New DCI commands added
07/01/11 hm Allocated subsystem command codes for Flash
04/06/11 hm Added subsystem id for 3GPP NAS team
02/25/11 hm Added subsystem id for USCRIPT tool
01/18/11 hm Added subsystem id for Q5 CORE
09/22/10 vg Added subsystem id for STRIDE
07/15/10 sg Added subsystem id for QNP
05/21/10 sg Doxygenated the file
05/16/10 as Added cmd_codes 101,102,105&106 for backward comparibility
04/21/10 sg Added new SSID for Ulog Services
04/20/10 is Remove support for DIAG_GET_PROPERTY_F, DIAG_PUT_PROPERTY_F,
DIAG_GET_PERM_PROPERTY_F, and DIAG_PUT_PERM_PROPERTY_F.
06/10/02 lcl/jwh FEATURE_HWTC changes.
05/23/02 sfh Added DIAG_PROTOCOL_LOOPBACK_F (123) command.
06/27/01 lad Assigned equipment ID 0 to be for OEMs to use.
05/21/01 sfh Added DIAG_TRACE_EVENT_REPORT_F for trace event support.
04/17/01 lad Moved subsystem dispatch IDs from diagpkt.h.
04/06/01 lad Changed the name of cmd code 111 from DUAG_TUNNEL_F to
DIAG_ROUTE_F.
02/23/01 lad Cosmetic changes.
09/06/00 bgc Added support for FEATURE_FACTORY_TESTMODE with
DIAG_FTM_CMD_F (set to 59, which is also DIAG_TMOB_F).
08/31/00 lad Added command code for tunneling capability.
06/23/00 lad Removed obsolete command codes and marked them "reserved".
06/19/00 lad Added DIAG_PARM_RETRIEVE_F
05/31/00 jal Added GPS statistics, session control, and grid support.
05/15/00 lad Added streaming config support (nice).
02/28/00 lad Added codes for event reporting service.
02/02/00 lad Added commands used with FEATURE_DIAG_QCT_EXT.
09/17/99 lcc Merged in RPC support from PLT archive.
08/17/99 tac Merged in EFS changes from branch.
07/19/99 sk Replacing reset_sup_fer with walsh code.
07/19/99 sk Added walsh code display command.
03/30/99 lad Added support for FEATURE_IS95B_MDR and FEATURE_SPECIAL_MDR.
11/04/98 lad Added 1998/1999 copyright information.
10/29/98 jmk Merged Module command changes into the mainline.
(Replaced MOD_GET_STATUS with MOD_EXTENDED_PKT cmd code 75)
10/27/98 jmk Added cmd IDs for CSS command, and SMS message read/write.
09/11/98 grl Added feature query command
10/06/97 jjn Added new commands for the Module Phase 1 interface. These
include Module Status Mask, AKEY and audio control packets.
04/23/97 jjn Added new packet pair to allow System Unit to access
service option and caller ID information
03/25/97 jjn Added new command (and packets) that allow writing to NV
without going offline (for the Module only)
02/28/97 jjn Enabled RSSI packets for the Module, added a packet for
module status and sound reporting, and added a pcket for
retrieving SMS messages
06/25/96 jmk Added cmd id for preferred roaming list read.
06/24/96 jmk Added cmd id for preferred roaming list write.
04/09/96 jmk Added cmd ids for sending security code, and return code
if phone is not unlocked for operations that require it.
03/06/96 jmk Added command id for serial mode change (to AT cmd mode)
and command id for get rssi (for antenna aiming/WLL only)
08/16/95 jmk Added command id for parm_get2 (includes MUX2 parms)
08/10/95 jmk Added command id for Phone State, Pilot Sets and SPC reqs
01/28/95 ptw Added command id to obtain System Time from the mobile.
12/07/94 jmk Added command id for portable sleep on/off request.
11/07/94 jmk Added command to request that seq_nums be used in pkts.
09/26/94 jmk Put DIAG_ORIG_F and DIAG_END_F back in.
07/23/93 twp Added DIAG_TMOB_F
01/14/93 twp First release
===========================================================================*/
/*--------------------------------------------------------------------------
Command Codes between the Diagnostic Monitor and the mobile. Packets
travelling in each direction are defined here, while the packet templates
for requests and responses are distinct. Note that the same packet id
value can be used for both a request and a response. These values
are used to index a dispatch table in diag.c, so
DON'T CHANGE THE NUMBERS ( REPLACE UNUSED IDS WITH FILLERS ). NEW IDs
MUST BE ASSIGNED AT THE END.
----------------------------------------------------------------------------*/
/*!
@cond DOXYGEN_BLOAT
*/
/* Version Number Request/Response */
#define DIAG_VERNO_F 0
/* Mobile Station ESN Request/Response */
#define DIAG_ESN_F 1
/* 2-11 Obsolete */
/* DMSS status Request/Response */
#define DIAG_STATUS_F 12
/* 13-14 Reserved */
/* Set logging mask Request/Response */
#define DIAG_LOGMASK_F 15
/* Log packet Request/Response */
#define DIAG_LOG_F 16
/* Peek at NV memory Request/Response */
#define DIAG_NV_PEEK_F 17
/* Poke at NV memory Request/Response */
#define DIAG_NV_POKE_F 18
/* Invalid Command Response */
#define DIAG_BAD_CMD_F 19
/* Invalid parmaeter Response */
#define DIAG_BAD_PARM_F 20
/* Invalid packet length Response */
#define DIAG_BAD_LEN_F 21
/* 22-23 Reserved */
/* Packet not allowed in this mode
( online vs offline ) */
#define DIAG_BAD_MODE_F 24
/* info for TA power and voice graphs */
#define DIAG_TAGRAPH_F 25
/* Markov statistics */
#define DIAG_MARKOV_F 26
/* Reset of Markov statistics */
#define DIAG_MARKOV_RESET_F 27
/* Return diag version for comparison to
detect incompatabilities */
#define DIAG_DIAG_VER_F 28
/* Return a timestamp */
#define DIAG_TS_F 29
/* Set TA parameters */
#define DIAG_TA_PARM_F 30
/* Request for msg report */
#define DIAG_MSG_F 31
/* Handset Emulation -- keypress */
#define DIAG_HS_KEY_F 32
/* Handset Emulation -- lock or unlock */
#define DIAG_HS_LOCK_F 33
/* Handset Emulation -- display request */
#define DIAG_HS_SCREEN_F 34
/* 35 Reserved */
/* Parameter Download */
#define DIAG_PARM_SET_F 36
/* 37 Reserved */
/* Read NV item */
#define DIAG_NV_READ_F 38
/* Write NV item */
#define DIAG_NV_WRITE_F 39
/* 40 Reserved */
/* Mode change request */
#define DIAG_CONTROL_F 41
/* Error record retreival */
#define DIAG_ERR_READ_F 42
/* Error record clear */
#define DIAG_ERR_CLEAR_F 43
/* Symbol error rate counter reset */
#define DIAG_SER_RESET_F 44
/* Symbol error rate counter report */
#define DIAG_SER_REPORT_F 45
/* Run a specified test */
#define DIAG_TEST_F 46
/* Retreive the current dip switch setting */
#define DIAG_GET_DIPSW_F 47
/* Write new dip switch setting */
#define DIAG_SET_DIPSW_F 48
/* Start/Stop Vocoder PCM loopback */
#define DIAG_VOC_PCM_LB_F 49
/* Start/Stop Vocoder PKT loopback */
#define DIAG_VOC_PKT_LB_F 50
/* 51-52 Reserved */
/* Originate a call */
#define DIAG_ORIG_F 53
/* End a call */
#define DIAG_END_F 54
/* 55-57 Reserved */
/* Switch to downloader */
#define DIAG_DLOAD_F 58
/* Test Mode Commands and FTM commands */
#define DIAG_TMOB_F 59
/* Test Mode Commands and FTM commands */
#define DIAG_FTM_CMD_F 59
/* 60-62 Reserved */
/* Featurization Removal requested by CMI
#ifdef FEATURE_HWTC
*/
#define DIAG_TEST_STATE_F 61
/*
#endif
*/
/* Return the current state of the phone */
#define DIAG_STATE_F 63
/* Return all current sets of pilots */
#define DIAG_PILOT_SETS_F 64
/* Send the Service Prog. Code to allow SP */
#define DIAG_SPC_F 65
/* Invalid nv_read/write because SP is locked */
#define DIAG_BAD_SPC_MODE_F 66
/* get parms obsoletes PARM_GET */
#define DIAG_PARM_GET2_F 67
/* Serial mode change Request/Response */
#define DIAG_SERIAL_CHG_F 68
/* 69 Reserved */
/* Send password to unlock secure operations
the phone to be in a security state that
is wasn't - like unlocked. */
#define DIAG_PASSWORD_F 70
/* An operation was attempted which required */
#define DIAG_BAD_SEC_MODE_F 71
/* Write Preferred Roaming list to the phone. */
#define DIAG_PR_LIST_WR_F 72
/* Read Preferred Roaming list from the phone.*/
#define DIAG_PR_LIST_RD_F 73
/* 74 Reserved */
/* Subssytem dispatcher (extended diag cmd) */
#define DIAG_SUBSYS_CMD_F 75
/* 76-80 Reserved */
/* Asks the phone what it supports */
#define DIAG_FEATURE_QUERY_F 81
/* 82 Reserved */
/* Read SMS message out of NV */
#define DIAG_SMS_READ_F 83
/* Write SMS message into NV */
#define DIAG_SMS_WRITE_F 84
/* info for Frame Error Rate
on multiple channels */
#define DIAG_SUP_FER_F 85
/* Supplemental channel walsh codes */
#define DIAG_SUP_WALSH_CODES_F 86
/* Sets the maximum # supplemental
channels */
#define DIAG_SET_MAX_SUP_CH_F 87
/* get parms including SUPP and MUX2:
obsoletes PARM_GET and PARM_GET_2 */
#define DIAG_PARM_GET_IS95B_F 88
/* Performs an Embedded File System
(EFS) operation. */
#define DIAG_FS_OP_F 89
/* AKEY Verification. */
#define DIAG_AKEY_VERIFY_F 90
/* Handset emulation - Bitmap screen */
#define DIAG_BMP_HS_SCREEN_F 91
/* Configure communications */
#define DIAG_CONFIG_COMM_F 92
/* Extended logmask for > 32 bits. */
#define DIAG_EXT_LOGMASK_F 93
/* 94-95 reserved */
/* Static Event reporting. */
#define DIAG_EVENT_REPORT_F 96
/* Load balancing and more! */
#define DIAG_STREAMING_CONFIG_F 97
/* Parameter retrieval */
#define DIAG_PARM_RETRIEVE_F 98
/* A state/status snapshot of the DMSS. */
#define DIAG_STATUS_SNAPSHOT_F 99
/* 100 obsolete */
/* Get_property requests */
#define DIAG_GET_PROPERTY_F 101
/* Put_property requests */
#define DIAG_PUT_PROPERTY_F 102
/* Get_guid requests */
#define DIAG_GET_GUID_F 103
/* Invocation of user callbacks */
#define DIAG_USER_CMD_F 104
/* Get permanent properties */
#define DIAG_GET_PERM_PROPERTY_F 105
/* Put permanent properties */
#define DIAG_PUT_PERM_PROPERTY_F 106
/* Permanent user callbacks */
#define DIAG_PERM_USER_CMD_F 107
/* GPS Session Control */
#define DIAG_GPS_SESS_CTRL_F 108
/* GPS search grid */
#define DIAG_GPS_GRID_F 109
/* GPS Statistics */
#define DIAG_GPS_STATISTICS_F 110
/* Packet routing for multiple instances of diag */
#define DIAG_ROUTE_F 111
/* IS2000 status */
#define DIAG_IS2000_STATUS_F 112
/* RLP statistics reset */
#define DIAG_RLP_STAT_RESET_F 113
/* (S)TDSO statistics reset */
#define DIAG_TDSO_STAT_RESET_F 114
/* Logging configuration packet */
#define DIAG_LOG_CONFIG_F 115
/* Static Trace Event reporting */
#define DIAG_TRACE_EVENT_REPORT_F 116
/* SBI Read */
#define DIAG_SBI_READ_F 117
/* SBI Write */
#define DIAG_SBI_WRITE_F 118
/* SSD Verify */
#define DIAG_SSD_VERIFY_F 119
/* Log on Request */
#define DIAG_LOG_ON_DEMAND_F 120
/* Request for extended msg report */
#define DIAG_EXT_MSG_F 121
/* ONCRPC diag packet */
#define DIAG_ONCRPC_F 122
/* Diagnostics protocol loopback. */
#define DIAG_PROTOCOL_LOOPBACK_F 123
/* Extended build ID text */
#define DIAG_EXT_BUILD_ID_F 124
/* Request for extended msg report */
#define DIAG_EXT_MSG_CONFIG_F 125
/* Extended messages in terse format */
#define DIAG_EXT_MSG_TERSE_F 126
/* Translate terse format message identifier */
#define DIAG_EXT_MSG_TERSE_XLATE_F 127
/* Subssytem dispatcher Version 2 (delayed response capable) */
#define DIAG_SUBSYS_CMD_VER_2_F 128
/* Get the event mask */
#define DIAG_EVENT_MASK_GET_F 129
/* Set the event mask */
#define DIAG_EVENT_MASK_SET_F 130
/* RESERVED CODES: 131-139 */
/* Command Code for Changing Port Settings */
#define DIAG_CHANGE_PORT_SETTINGS 140
/* Country network information for assisted dialing */
#define DIAG_CNTRY_INFO_F 141
/* Send a Supplementary Service Request */
#define DIAG_SUPS_REQ_F 142
/* Originate SMS request for MMS */
#define DIAG_MMS_ORIG_SMS_REQUEST_F 143
/* Change measurement mode*/
#define DIAG_MEAS_MODE_F 144
/* Request measurements for HDR channels */
#define DIAG_MEAS_REQ_F 145
/* Send Optimized F3 messages */
#define DIAG_QSR_EXT_MSG_TERSE_F 146
/* Packet ID for command/responses sent over DCI */
#define DIAG_DCI_CMD_REQ 147
/* Packet ID for delayed responses sent over DCI */
#define DIAG_DCI_DELAYED_RSP 148
/* Error response code on DCI (only APSS side) */
#define DIAG_BAD_TRANS_F 149
/* Error response code for cmomands disallowed by SSM */
#define DIAG_SSM_DISALLOWED_CMD_F 150
/* Log on extended Request */
#define DIAG_LOG_ON_DEMAND_EXT_F 151
/* Packet ID for extended event/log/F3 pkt */
#define DIAG_CMD_EXT_F 152
/*Qshrink4 command code for Qshrink 4 packet*/
#define DIAG_QSR4_EXT_MSG_TERSE_F 153
/*DCI command code for dci control packet*/
#define DIAG_DCI_CONTROL_PACKET 154
/*Compressed diag data which is sent out by the DMSS to the host.*/
#define DIAG_COMPRESSED_PKT 155
/* Number of packets defined. */
#define DIAG_MAX_F 155
typedef enum {
DIAG_SUBSYS_OEM = 0, /* Reserved for OEM use */
DIAG_SUBSYS_ZREX = 1, /* ZREX */
DIAG_SUBSYS_SD = 2, /* System Determination */
DIAG_SUBSYS_BT = 3, /* Bluetooth */
DIAG_SUBSYS_WCDMA = 4, /* WCDMA */
DIAG_SUBSYS_HDR = 5, /* 1xEvDO */
DIAG_SUBSYS_DIABLO = 6, /* DIABLO */
DIAG_SUBSYS_TREX = 7, /* TREX - Off-target testing environments */
DIAG_SUBSYS_GSM = 8, /* GSM */
DIAG_SUBSYS_UMTS = 9, /* UMTS */
DIAG_SUBSYS_HWTC = 10, /* HWTC */
DIAG_SUBSYS_FTM = 11, /* Factory Test Mode */
DIAG_SUBSYS_REX = 12, /* Rex */
DIAG_SUBSYS_OS = DIAG_SUBSYS_REX,
DIAG_SUBSYS_GPS = 13, /* Global Positioning System */
DIAG_SUBSYS_WMS = 14, /* Wireless Messaging Service (WMS, SMS) */
DIAG_SUBSYS_CM = 15, /* Call Manager */
DIAG_SUBSYS_HS = 16, /* Handset */
DIAG_SUBSYS_AUDIO_SETTINGS = 17, /* Audio Settings */
DIAG_SUBSYS_DIAG_SERV = 18, /* DIAG Services */
DIAG_SUBSYS_FS = 19, /* File System - EFS2 */
DIAG_SUBSYS_PORT_MAP_SETTINGS = 20, /* Port Map Settings */
DIAG_SUBSYS_MEDIAPLAYER = 21, /* QCT Mediaplayer */
DIAG_SUBSYS_QCAMERA = 22, /* QCT QCamera */
DIAG_SUBSYS_MOBIMON = 23, /* QCT MobiMon */
DIAG_SUBSYS_GUNIMON = 24, /* QCT GuniMon */
DIAG_SUBSYS_LSM = 25, /* Location Services Manager */
DIAG_SUBSYS_QCAMCORDER = 26, /* QCT QCamcorder */
DIAG_SUBSYS_MUX1X = 27, /* Multiplexer */
DIAG_SUBSYS_DATA1X = 28, /* Data */
DIAG_SUBSYS_SRCH1X = 29, /* Searcher */
DIAG_SUBSYS_CALLP1X = 30, /* Call Processor */
DIAG_SUBSYS_APPS = 31, /* Applications */
DIAG_SUBSYS_SETTINGS = 32, /* Settings */
DIAG_SUBSYS_GSDI = 33, /* Generic SIM Driver Interface */
DIAG_SUBSYS_UIMDIAG = DIAG_SUBSYS_GSDI,
DIAG_SUBSYS_TMC = 34, /* Task Main Controller */
DIAG_SUBSYS_USB = 35, /* Universal Serial Bus */
DIAG_SUBSYS_PM = 36, /* Power Management */
DIAG_SUBSYS_DEBUG = 37,
DIAG_SUBSYS_QTV = 38,
DIAG_SUBSYS_CLKRGM = 39, /* Clock Regime */
DIAG_SUBSYS_DEVICES = 40,
DIAG_SUBSYS_WLAN = 41, /* 802.11 Technology */
DIAG_SUBSYS_PS_DATA_LOGGING = 42, /* Data Path Logging */
DIAG_SUBSYS_PS = DIAG_SUBSYS_PS_DATA_LOGGING,
DIAG_SUBSYS_MFLO = 43, /* MediaFLO */
DIAG_SUBSYS_DTV = 44, /* Digital TV */
DIAG_SUBSYS_RRC = 45, /* WCDMA Radio Resource Control state */
DIAG_SUBSYS_PROF = 46, /* Miscellaneous Profiling Related */
DIAG_SUBSYS_TCXOMGR = 47,
DIAG_SUBSYS_NV = 48, /* Non Volatile Memory */
DIAG_SUBSYS_AUTOCONFIG = 49,
DIAG_SUBSYS_PARAMS = 50, /* Parameters required for debugging subsystems */
DIAG_SUBSYS_MDDI = 51, /* Mobile Display Digital Interface */
DIAG_SUBSYS_DS_ATCOP = 52,
DIAG_SUBSYS_L4LINUX = 53, /* L4/Linux */
DIAG_SUBSYS_MVS = 54, /* Multimode Voice Services */
DIAG_SUBSYS_CNV = 55, /* Compact NV */
DIAG_SUBSYS_APIONE_PROGRAM = 56, /* apiOne */
DIAG_SUBSYS_HIT = 57, /* Hardware Integration Test */
DIAG_SUBSYS_DRM = 58, /* Digital Rights Management */
DIAG_SUBSYS_DM = 59, /* Device Management */
DIAG_SUBSYS_FC = 60, /* Flow Controller */
DIAG_SUBSYS_MEMORY = 61, /* Malloc Manager */
DIAG_SUBSYS_FS_ALTERNATE = 62, /* Alternate File System */
DIAG_SUBSYS_REGRESSION = 63, /* Regression Test Commands */
DIAG_SUBSYS_SENSORS = 64, /* The sensors subsystem */
DIAG_SUBSYS_FLUTE = 65, /* FLUTE */
DIAG_SUBSYS_ANALOG = 66, /* Analog die subsystem */
DIAG_SUBSYS_APIONE_PROGRAM_MODEM = 67, /* apiOne Program On Modem Processor */
DIAG_SUBSYS_LTE = 68, /* LTE */
DIAG_SUBSYS_BREW = 69, /* BREW */
DIAG_SUBSYS_PWRDB = 70, /* Power Debug Tool */
DIAG_SUBSYS_CHORD = 71, /* Chaos Coordinator */
DIAG_SUBSYS_SEC = 72, /* Security */
DIAG_SUBSYS_TIME = 73, /* Time Services */
DIAG_SUBSYS_Q6_CORE = 74, /* Q6 core services */
DIAG_SUBSYS_COREBSP = 75, /* CoreBSP */
/* Command code allocation:
[0 - 2047] - HWENGINES
[2048 - 2147] - MPROC
[2148 - 2247] - BUSES
[2248 - 2347] - USB
[2348 - 2447] - FLASH
[2448 - 3447] - UART
[3448 - 3547] - PRODUCTS
[3547 - 65535] - Reserved
*/
DIAG_SUBSYS_MFLO2 = 76, /* Media Flow */
/* Command code allocation:
[0 - 1023] - APPs
[1024 - 65535] - Reserved
*/
DIAG_SUBSYS_ULOG = 77, /* ULog Services */
DIAG_SUBSYS_APR = 78, /* Asynchronous Packet Router (Yu, Andy)*/
DIAG_SUBSYS_QNP = 79 , /*QNP (Ravinder Are , Arun Harnoor)*/
DIAG_SUBSYS_STRIDE = 80 , /* Ivailo Petrov */
DIAG_SUBSYS_OEMDPP = 81 , /* to read/write calibration to DPP partition */
DIAG_SUBSYS_Q5_CORE = 82 , /* Requested by ADSP team */
DIAG_SUBSYS_USCRIPT = 83 , /* core/power team USCRIPT tool */
DIAG_SUBSYS_NAS = 84 , /* Requested by 3GPP NAS team */
DIAG_SUBSYS_CMAPI = 85 , /* Requested by CMAPI */
DIAG_SUBSYS_SSM = 86,
DIAG_SUBSYS_TDSCDMA = 87, /* Requested by TDSCDMA team */
DIAG_SUBSYS_SSM_TEST = 88,
DIAG_SUBSYS_MPOWER = 89, /* Requested by MPOWER team */
DIAG_SUBSYS_QDSS = 90, /* For QDSS STM commands */
DIAG_SUBSYS_CXM = 91,
DIAG_SUBSYS_GNSS_SOC = 92, /* Secondary GNSS system */
DIAG_SUBSYS_TTLITE = 93,
DIAG_SUBSYS_FTM_ANT = 94,
DIAG_SUBSYS_MLOG = 95,
DIAG_SUBSYS_LIMITSMGR = 96,
DIAG_SUBSYS_EFSMONITOR = 97,
DIAG_SUBSYS_DISPLAY_CALIBRATION = 98,
DIAG_SUBSYS_VERSION_REPORT = 99,
DIAG_SUBSYS_DS_IPA = 100,
DIAG_SUBSYS_SYSTEM_OPERATIONS = 101,
DIAG_SUBSYS_CNSS_POWER = 102,
DIAG_SUBSYS_LWIP = 103,
DIAG_SUBSYS_IMS_QVP_RTP = 104,
DIAG_SUBSYS_STORAGE = 105,
DIAG_SUBSYS_WCI2 = 106,
DIAG_SUBSYS_AOSTLM_TEST = 107,
DIAG_SUBSYS_CFCM = 108,
DIAG_SUBSYS_CORE_SERVICES = 109,
DIAG_SUBSYS_CVD = 110,
DIAG_SUBSYS_MCFG = 111,
DIAG_SUBSYS_MODEM_STRESSFW = 112,
DIAG_SUBSYS_LAST,
/* Subsystem IDs reserved for OEM use */
DIAG_SUBSYS_RESERVED_OEM_0 = 250,
DIAG_SUBSYS_RESERVED_OEM_1 = 251,
DIAG_SUBSYS_RESERVED_OEM_2 = 252,
DIAG_SUBSYS_RESERVED_OEM_3 = 253,
DIAG_SUBSYS_RESERVED_OEM_4 = 254,
DIAG_SUBSYS_LEGACY = 255
} diagpkt_subsys_cmd_enum_type;
/*!
@endcond
*/
#endif /* DIAGCMD_H */

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#ifndef DIAGI_H
#define DIAGI_H
/*==========================================================================
Diagnostic Subsystem Internal Header File
Description
Shared declarations and prototypes internal to the Diagnostic subsystem.
# Copyright (c) 2007-2011, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
$Header: //depot/asic/msmshared/services/diag/DIAG_7K/diagi.h#1 $
when who what, where, why
-------- --- ----------------------------------------------------------
10/01/08 sj Changes for CBSP2.0
11/21/06 as Moved DIAG internal features from diagi.h to diag.h
08/28/06 as Added win mobile featurization support.
03/28/06 pc Changed DIAG_TX_APP_SIG from 0x00800000 to 0x00080000.
10/19/05 as Modified diag_searchlist_type to make it 4-byte aligned.
07/05/05 sl Added support for SPC_TIMEOUT to double the timeout value
on consecutive incorrect SPCs.
06/16/05 as New signal for DM to communicate completion.
05/17/05 as Added new signal for Application processor data.
10/24/01 jal New signal for SIO to indicate the UART is flushed.
New signal for SIO to indicate port closure is complete.
08/20/01 jal Supported more Diag packets. Added NV cache typedef,
prototypes for diag_set_sp_state(), downloader status.
06/27/01 lad Various non-functional changes to facilitate update of
log services.
04/06/01 lad Added definitions of DIAG_TASK_xxx sigs to decouple from
task.h.
ASYNC con<F2st definitions moved to diagcomm.h?
Externalized msg_nice[] and log_nice[] for streaming config
support.
Moved prototype of diag_kick_watchdog() to diagtarget.h.
Added prototype of diagpkt_process_request() (moved from
diagpkt.h).
Updated prototype for diag_do_escaping().
Removed prototype for diag_do_unescaping().
Removed references to diagpkt_refresh_cache().
02/23/01 lad Rearchitected the diagnostics subsystem to be a service
rather than a module. All coupling to targets has been
moved to target-specific implementations. The only coupling
that remains are common services and REX.
Old history comments have been removed since most of them
are no longer applicable.
===========================================================================*/
#include "diag.h"
#include "diagpkt.h"
#include "log.h"
#include <string.h>
/* -------------------------------------------------------------------------
** Diag Task Signal Definitions
** ------------------------------------------------------------------------- */
// Added this for CBSP2.0
typedef enum { /* begin feature_query_enum_type */
FEATURE_QUERY_ENUM_LENGTH /* used to determine mask size */
} feature_query_enum_type;
/* The shortest length of the mask to cover all entries in the enum */
#define FEATURE_MASK_LENGTH \
((FEATURE_QUERY_ENUM_LENGTH / 8)+1)
/* This specifies the last equipment ID for use in logging services. This is a
* 4-bit value, so it cannot exceed 15. */
#define LOG_EQUIP_ID_LAST LOG_EQUIP_ID_LAST_DEFAULT
/* -------------------------------------------------------------------------
** Externalized data members
** ------------------------------------------------------------------------- */
/* The following is used by the packet service to store rsp packets. */
typedef struct {
unsigned int pattern; /* Pattern to check validity of committed pointers. */
unsigned int size; /* Size of usable buffer (diagpkt_q_type->pkt) */
unsigned int length; /* Size of packet */
byte pkt[DIAG_MAX_RX_PKT_SIZ]; /* Sized by 'length' field. */
} diagpkt_rsp_type;
#endif /* DIAGI_H */

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#ifndef DIAGLOGI_H
#define DIAGLOGI_H
/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
Logging Services internal header file
General Description
Internal declarations to support data logging.
Initializing and Sequencing Requirements
'log_init()' must be called once during initialization prior to use.
# Copyright (c) 2007-2011, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================
Edit History
when who what, where, why
-------- --- ----------------------------------------------------------
10/01/08 sj Changes for CBSP2.0
01/10/08 mad Added copyright and file description.
12/5/07 as Created
===========================================================================*/
#include "log_codes.h"
#include "./../include/log.h"
// COMMENTED OUT FOR LINUX
//#include "diagi.h"
/* -------------------------------------------------------------------------
* Definitions and Declarations
* ------------------------------------------------------------------------- */
typedef PACK(struct)
{
uint16 len; /* Specifies the length, in bytes of
the entry, including this header. */
uint16 code; /* Specifies the log code for the
entry as enumerated above.
Note: This is specified as word
to guarantee size. */
// removed AMSS specific code
//qword ts; // The system timestamp for the log entry. The upper 48 bits
// represent elapsed time since 6 Jan 1980 00:00:00
// in 1.25 ms units. The low order 16 bits represent elapsed
// time since the last 1.25 ms tick in 1/32 chip units
// (this 16 bit counter wraps at the value 49152).
uint32 ts_lo; /* Time stamp */
uint32 ts_hi;
} log_header_type;
#ifndef EQUIP_ID_MAX
#define EQUIP_ID_MAX 16
#endif
typedef enum
{
LOG_INIT_STATE = 0,
LOG_NORMAL_STATE,
LOG_FLUSH_STATE, /* Pending flush operation. */
LOG_PANIC_STATE /* Panic mode flush in progress */
} log_state_enum_type;
//static log_state_enum_type log_state = LOG_INIT_STATE;
static void *log_commit_last = NULL; /* Many writers, 1 reader (DIAG) */
//static void *log_flush_last = NULL; /* 1 writer, 1 reader (both DIAG) */
#define LOG_DIAGPKT_OFFSET FPOS(diag_log_rsp_type, log)
/* -------------------------------------------------------------------------
* Definitions for last log code per equipment ID.
* If it is undefined, it is defined to 0. digatune.h need only to
* contain values for included equipment IDs.
* ------------------------------------------------------------------------- */
#if !defined (LOG_EQUIP_ID_0_LAST_CODE)
#define LOG_EQUIP_ID_0_LAST_CODE LOG_EQUIP_ID_0_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_1_LAST_CODE)
#define LOG_EQUIP_ID_1_LAST_CODE LOG_EQUIP_ID_1_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_2_LAST_CODE)
#define LOG_EQUIP_ID_2_LAST_CODE LOG_EQUIP_ID_2_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_3_LAST_CODE)
#define LOG_EQUIP_ID_3_LAST_CODE LOG_EQUIP_ID_3_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_4_LAST_CODE)
#define LOG_EQUIP_ID_4_LAST_CODE LOG_EQUIP_ID_4_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_5_LAST_CODE)
#define LOG_EQUIP_ID_5_LAST_CODE LOG_EQUIP_ID_5_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_6_LAST_CODE)
#define LOG_EQUIP_ID_6_LAST_CODE LOG_EQUIP_ID_6_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_7_LAST_CODE)
#define LOG_EQUIP_ID_7_LAST_CODE LOG_EQUIP_ID_7_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_8_LAST_CODE)
#define LOG_EQUIP_ID_8_LAST_CODE LOG_EQUIP_ID_8_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_9_LAST_CODE)
#define LOG_EQUIP_ID_9_LAST_CODE LOG_EQUIP_ID_9_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_10_LAST_CODE)
#define LOG_EQUIP_ID_10_LAST_CODE LOG_EQUIP_ID_10_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_11_LAST_CODE)
#define LOG_EQUIP_ID_11_LAST_CODE LOG_EQUIP_ID_11_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_12_LAST_CODE)
#define LOG_EQUIP_ID_12_LAST_CODE LOG_EQUIP_ID_12_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_13_LAST_CODE)
#define LOG_EQUIP_ID_13_LAST_CODE LOG_EQUIP_ID_13_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_14_LAST_CODE)
#define LOG_EQUIP_ID_14_LAST_CODE LOG_EQUIP_ID_14_LAST_CODE_DEFAULT
#endif
#if !defined (LOG_EQUIP_ID_15_LAST_CODE)
#define LOG_EQUIP_ID_15_LAST_CODE LOG_EQUIP_ID_15_LAST_CODE_DEFAULT
#endif
/* -------------------------------------------------------------------------
* Logging mask implementation details.
*
* The logging mask stores a bit for every code within the range specified
* in log_codes.h. Each equipment ID has a mask that is represented
* as an array of bytes. All of this are listed in an array of bytes
* of size 'LOG_MASK_SIZE'. An offset into this array is used to determine
* the start of the mask associated with a particular equipment ID.
*
* The range is inclusive, meaning the beginning (0) and end value
* ('LOG_EQUIP_ID_xxx_LAST_ITEM') are included in the range. Therefore, all
* equipment IDs have at least 1 byte (range 0-0).
*
* 'log_mask' is the mask of bits used to represent the configuration of all
* log codes. '1' denotes the code being enabled, '0' denotes disabled.
*
* 'log_last_item_tbl' is an array of offsets into log_mask indexed by
* equipment ID.
*
* 'LOG_MASK_ARRAY_INDEX()' determine the index into the mask for a given
* equipment ID.
*
* 'LOG_MASK_BIT_MASK()' gives the bit of the code within its byte in the
* mask.
*
* 'LOG_GET_EQUIP_ID()' retuns the equipment ID of a given log code.
*
* 'LOG_GET_ITEM_NUM()' returns the item number of a given log code.
*
* 'log_mask_enabled()' returns non-zero if a code is enabled.
*
* 'log_set_equip_id()' sets the equipment ID in a log code.
*
* ------------------------------------------------------------------------- */
#define LOG_MASK_ARRAY_INDEX(xx_item) ((xx_item) >> 3)
#define LOG_MASK_BIT_MASK(xx_item) (0x01 << ((xx_item) & 7))
#define LOG_GET_EQUIP_ID(xx_code) ((((log_code_type) (xx_code)) >> 12) & 0x000F)
#define LOG_GET_ITEM_NUM(xx_code) (((log_code_type) (xx_code)) & 0x0FFF)
/* This computes the number of bytes in the log mask array. */
#define MAX_EQUIP_ID 16
#define MAX_ITEMS_PER_EQUIP_ID 512
#define LOG_MASK_ITEM_SIZE (sizeof(uint8) + sizeof(unsigned int) + MAX_ITEMS_PER_EQUIP_ID)
#define LOG_MASK_SIZE (MAX_EQUIP_ID * LOG_MASK_ITEM_SIZE)
#define DCI_LOG_EQUIP_MAX_SIZE (MAX_ITEMS_PER_EQUIP_ID + 2)
#define DCI_LOG_MASK_SIZE (MAX_EQUIP_ID*DCI_LOG_EQUIP_MAX_SIZE)
typedef PACK(struct) {
uint8 equip_id;
unsigned int num_items;
byte mask[MAX_ITEMS_PER_EQUIP_ID];
} diag_log_mask_t;
#endif /* DIAGLOGI_H */

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#ifndef DIAGPKT_H
#define DIAGPKT_H
/*==========================================================================
Diagnostic System Packet Interface
Description: Interface definitions use the diag packet processing service.
!!! NOTE: Diagnostic packets are sent over an external interface.
Structure definitions must be portable to other C compilers. The easiest
way to do this is to byte-align the packet definitions. The ARM compiler
uses the PACKED keyword to denote byte alignment. Most other compilers
use #pragma pack(1) to enable structure packing. The structure is not
required to be byte-aligned, but it is required to be portable to other
compilers.
!!! WARNING: Each command code is part of the externalized diagnostic command
interface. Internally within QCT, these numbers *MUST* be assigned by a
member of QCT's tools development team. 3rd party developers may use the
reserved subsystem IDs to define and grow the diagnostic packet needs.
# Copyright (c) 2007-2011, 2016 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/* <EJECT> */
/*===========================================================================
Edit History
$Header: //depot/asic/msmshared/services/diag/Diag_1.5/Diag_LSM/diagpkt.h#2 $
when who what, where, why
-------- --- ----------------------------------------------------------
04/10/08 pc Introduced support for masking events.
12/22/06 as Moved proc ID macros to diag.h
10/31/05 as Fixed lint errors.
12/23/04 ec Added function diagpkt_free() declaration
03/15/04 as Implemented functions to access fields in delayed response
header
12/16/03 as Added new macro to support delayed response.
08/30/02 lad Revised file for multimode diagnostics version.
05/21/01 lad Made diagpkt headers in DIAGPKT macros opaque.
Added FEATURE_DIAG_PACKET_COUPLING to facililitate migration
to this API.
04/17/01 lad Removed inclusion of diagtune.h.
Moved subsystem dispatch IDs to diagcmd.h.
04/06/01 lad Introduced typedefs for command codes, etc.
Updated DIAGPKT_SUBSYS_REQ_DEFINE macros.
Added diagpkt_subsys_alloc().
Removed diagpkt_process_request() since it is not part of the
externalized interface.
02/23/01 lad Rearchitected the diagnostics subsystem to be a service
rather than a module. All coupling to targets has been
moved to target-specific implementations. This file now
contains an API for packet processing services.
No other information or coupling remains except for
featurized legacy code that impacts existing targets.
Old history comments have been removed since most of them
are no longer applicable.
Packet definitions are no longer included in this file.
===========================================================================*/
#include "diag.h"
/* Max size packet that the DIAG kernel driver allows.
These are additionally defined in diagchar_core.c & diagchar.h */
#define DIAG_MAX_TX_PKT_SIZ (16*1024)
#define DIAG_MAX_RX_PKT_SIZ (16*1024)
/* -------------------------------------------------------------------------
Type and Packet Definition Macros
------------------------------------------------------------------------- */
typedef uint8 diagpkt_cmd_code_type;
typedef uint8 diagpkt_subsys_id_type;
typedef uint16 diagpkt_subsys_cmd_code_type;
typedef uint32 diagpkt_subsys_status_type;
typedef uint16 diagpkt_subsys_delayed_rsp_id_type;
typedef uint16 diagpkt_subsys_rsp_cnt;
typedef PACK(struct)
{
byte opaque_header;
}
diagpkt_header_type;
typedef PACK(struct)
{
byte opaque_header[4];
}
diagpkt_subsys_header_type;
typedef PACK(struct)
{
byte opaque_header[12];
}
diagpkt_subsys_header_v2_type;
/* -------------------------------------------------------------------------
Function Definitions
------------------------------------------------------------------------- */
#ifdef __cplusplus
extern "C"
{
#endif
/* Packet Handler Types */
/* An array of this type is created by the client and registered with this
service. It must be declared 'const' (preferrably 'static const').
The function is called when an inbound packet matches subsystem ID and
is within the command code range specified in the table. */
typedef struct
{
word cmd_code_lo;
word cmd_code_hi;
void *(*func_ptr) (void *req_pkt_ptr, uint16 pkt_len);
}
diagpkt_user_table_entry_type;
/* Note: the following 2 items are used internally via the macro below. */
/* User table type */
typedef struct
{ uint16 delay_flag; /* 0 means no delay and 1 means with delay */
uint16 cmd_code;
word subsysid;
word count;
uint16 proc_id;
const diagpkt_user_table_entry_type *user_table;
} diagpkt_user_table_type;
#define DIAGPKT_NO_SUBSYS_ID 0xFF
void diagpkt_tbl_reg (const diagpkt_user_table_type * tbl_ptr);
/* Use this macro to register your dispatch table with the diagnostics
packet dispatching service. */
/* This macro is used to manually register the client table with the
packet dispatch service. This solution is intended to be temporary
pending support for C++ on targets. This macro requires the client
to explicitly register the table. */
/* USAGE: For registering diag packet tables on dual processor target, use
the following functions:
For diag packets which are specific to APP's processor use:
DIAGPKT_DISPATCH_TABLE_REGISTER_PROC (DIAG_APP_PROC, DIAG_SUBSYS_XXXX,
XXXX_subsys_tbl_app);
For diag packets which are common to both processor's use:
DIAGPKT_DISPATCH_TABLE_REGISTER_PROC (DIAG_DUAL_PROC, DIAGPKT_SUBSYS_XXXX,
XXXX_common_tbl);
*/
#if defined (IMAGE_APPS_PROC)
#define DIAGPKT_DISPATCH_TABLE_REGISTER(xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
0, 0xFF, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), 1, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_TABLE_REGISTER_V2(xx_cmdcode, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
0, xx_cmdcode, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), 1, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_TABLE_REGISTER_V2_DELAY(xx_cmdcode, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
1, xx_cmdcode, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), 1, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
#else
/* Single processor or modem proc*/
#define DIAGPKT_DISPATCH_TABLE_REGISTER(xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
0, 0xFF, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), 0, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_TABLE_REGISTER_V2(xx_cmdcode, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
0, xx_cmdcode, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), 0, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_TABLE_REGISTER_V2_DELAY(xx_cmdcode, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
1, xx_cmdcode, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), 0, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
#endif
#define DIAGPKT_DISPATCH_TABLE_REGISTER_PROC(xx_proc_id, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
0, 0xFF, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), xx_proc_id, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_TABLE_REGISTER_V2_PROC(xx_proc_id, xx_cmdcode, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
0, xx_cmdcode, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), xx_proc_id, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_TABLE_REGISTER_V2_DELAY_PROC(xx_proc_id, xx_cmdcode, xx_subsysid, xx_entry) \
do { \
static const diagpkt_user_table_type xx_entry##_table = { \
1, xx_cmdcode, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), xx_proc_id, xx_entry \
}; \
/*lint -save -e717 */ \
diagpkt_tbl_reg (&xx_entry##_table); \
} while (0)
/*lint -restore */
#ifdef __cplusplus
/* C++ class used for autoregister */
class DiagDispatch
{
public:
DiagDispatch (const diagpkt_user_table_type *tbl_ptr)
{
diagpkt_tbl_reg(tbl_ptr);
}
};
/* If C++ is supported in the build, this macro, defined in the
preprocessor, instantiates a class with a 'static const' constructor.
This class is therefore instantiated at boot, calling the constructor
prior to the system 'main()'. This eliminates the need to acquire
scope to register, it is done automatically. */
#define DIAGPKT_DISPATCH_AUTOREGISTER(xx_subsysid, xx_entry) \
static const diagpkt_user_table_type xx_entry##_table = { \
0, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), xx_entry \
}; \
DiagDispatch xx_entry##_instance(&xx_entry##_table)
/* This macro is used if the diag packet has delayed response */
#define DIAGPKT_DISPATCH_AUTOREGISTER_DELAY(xx_subsysid, xx_entry) \
static const diagpkt_user_table_type xx_entry##_table = { \
1, xx_subsysid, sizeof (xx_entry) / sizeof (xx_entry[0]), xx_entry \
}; \
DiagDispatch xx_entry##_instance(&xx_entry##_table)
#endif
/* ------------------------------------------------------------------------
Functions
------------------------------------------------------------------------ */
/*===========================================================================
FUNCTION DIAGPKT_ALLOC
DESCRIPTION
This function allocates the specified amount of space in the diag output
buffer. If space is unavailable, access to the allocation buffer will be
blocked using a semaphore until space is available.
DEPENDENCIES
This may only be called by the diag task for responses to explicit request
packets! This function is *not* re-entrant. If the OS ever supports
semaphores other than INTLOCK, this function can be made re-entrant.
diagpkt_commit() must be called to commit the response packet to be sent.
Not calling diagpkt_commit() will result in a memory leak.
============================================================================*/
void *diagpkt_alloc (diagpkt_cmd_code_type code, unsigned int length);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_ALLOC
DESCRIPTION
This call is the same as calling diagpkt_alloc(), but is used for
allocating responses for subsystem commands. It fills in the subsystem
header info for you.
DEPENDENCIES
This may only be called by the diag task for responses to explicit request
packets! This function is *not* re-entrant. If the OS ever supports
semaphores other than INTLOCK, this function can be made re-entrant.
diagpkt_commit() must be called to commit the response packet to be sent.
Not calling diagpkt_commit() will result in a memory leak.
============================================================================*/
void *diagpkt_subsys_alloc (diagpkt_subsys_id_type id,
diagpkt_subsys_cmd_code_type code, unsigned int length);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_ALLOC_V2
DESCRIPTION
This function allocates the specified amount of space in the diag output
buffer. If space is unavailable, access to the allocation buffer will be
blocked using a semaphore until space is available.
DEPENDENCIES
This may only be called by the diag task for responses to explicit request
packets! This function is *not* re-entrant. If the OS ever supports
semaphores other than INTLOCK, this function can be made re-entrant.
diagpkt_commit() must be called to commit the response packet to be sent.
Not calling diagpkt_commit() will result in a memory leak.
===========================================================================*/
void *diagpkt_subsys_alloc_v2 (diagpkt_subsys_id_type id,
diagpkt_subsys_cmd_code_type code, unsigned int length);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_ALLOC_V2_DELAY
DESCRIPTION
This function allocates the specified amount of space in the diag output
buffer. This function is used to send a delayed response.This response has
same priority as F3 messages and logs.
DEPENDENCIES
diagpkt_delay_commit() must be called to commit the response packet to be
sent. Not calling diagpkt_delay_commit() will result in a memory leak.
Note:User is required to provide delayed response id as an argument.
This helps tools to match the delayed response with the original
request response pair.
===========================================================================*/
void *diagpkt_subsys_alloc_v2_delay (
diagpkt_subsys_id_type id,
diagpkt_subsys_cmd_code_type code,
diagpkt_subsys_delayed_rsp_id_type delayed_rsp_id,
unsigned int length);
/*===========================================================================
FUNCTION DIAGPKT_SHORTEN
DESCRIPTION
This function reduces the length field of a previously allcated buffer.
'ptr' must point to the same address that was returned by a prior call to
diagpkt_alloc() or diagpkt_subsys_alloc().
Allocating too much and using this to shorten the packet is ideal for
situations in which the length of the packet is not known prior to
allocation. Using this scheme does, however, consume resources that would
otherwise be used to buffer outbound diagnostics data. Please use this
capability sparingly.
============================================================================*/
void diagpkt_shorten (void *ptr, unsigned int length);
/*===========================================================================
FUNCTION DIAGPKT_MASK_TBL_CS_INIT
DESCRIPTION
This function initializes the mask_tbl_cs mutex variable.
===========================================================================*/
void diagpkt_mask_tbl_cs_init(void);
/*===========================================================================
FUNCTION DIAGPKT_MASTER_TBL_CS_INIT
DESCRIPTION
This function initializes the master_tbl_cs mutex variable.
===========================================================================*/
void diagpkt_master_tbl_cs_init(void);
/*===========================================================================
FUNCTION DIAGPKT_COMMIT_DCM
DESCRIPTION
This function commits previously allocated space in the diagnostics output
buffer.
'ptr' must be the same pointer that was returned from diagpkt_alloc() or
diagpkt_subsys_alloc().
This function signals the DIAG task and may cause a context switch.
The packet handler type returns the response pointer. The dispatcher
calls diagpkt_commit() internally. This only needs to be called
explicitly if the packet needs to be committed before the packet handler
returns. In this case, the packet handler should return NULL.
============================================================================*/
void diagpkt_commit_dcm (byte *ptr);
/*===========================================================================
FUNCTION DIAGPKT_COMMIT
DESCRIPTION
This function commits previously allocated space in the diagnostics output
buffer.
'ptr' must be the same pointer that was returned from diagpkt_alloc() or
diagpkt_subsys_alloc().
This function signals the DIAG task and may cause a context switch.
The packet handler type returns the response pointer. The dispatcher
calls diagpkt_commit() internally. This only needs to be called
explicitly if the packet needs to be committed before the packet handler
returns. In this case, the packet handler should return NULL.
============================================================================*/
void diagpkt_commit (void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_DELAY_COMMIT
DESCRIPTION
This function is a wrapper to diagbuf_commit
===========================================================================*/
void diagpkt_delay_commit (void *pkt);
/*===========================================================================
FUNCTION DIAGPKT_GET_CMD_CODE
DESCRIPTION
This function returns the command code in the specified diagnostics packet.
===========================================================================*/
diagpkt_cmd_code_type diagpkt_get_cmd_code (void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_SET_CMD_CODE
DESCRIPTION
This function sets the command code in the specified diagnostics packet.
===========================================================================*/
void diagpkt_set_cmd_code (void *ptr, diagpkt_cmd_code_type cmd_code);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_GET_ID
DESCRIPTION
This function returns the subsystem ID in the specified diagnostics packet.
If the packet is not a DIAG_SUBSYS_CMD_F or DIAG_SUBSYS_CMD_VER_2_F packet,
0xFFFF is returned.
===========================================================================*/
diagpkt_subsys_id_type diagpkt_subsys_get_id (void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_GET_CMD_CODE
DESCRIPTION
This function returns the subsystem command code in the specified
diagnostics packet.
If the packet is not a DIAG_SUBSYS_CMD_F or DIAG_SUBSYS_CMD_VER_2_F packet,
0xFFFF is returned.
===========================================================================*/
diagpkt_subsys_cmd_code_type diagpkt_subsys_get_cmd_code (void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_GET_STATUS
DESCRIPTION
This function gets the status field in the DIAG_SUBSYS_CMD_VER_2_F packet
This function's first argument (ptr) should always be DIAG_SUBSYS_CMD_VER_2_F
packet.
===========================================================================*/
diagpkt_subsys_status_type diagpkt_subsys_get_status (void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_SET_STATUS
DESCRIPTION
This function sets the status field in the DIAG_SUBSYS_CMD_VER_2_F packet.
This function's first argument (ptr) should always be DIAG_SUBSYS_CMD_VER_2_F
packet.
===========================================================================*/
void diagpkt_subsys_set_status (void *ptr,
diagpkt_subsys_status_type status);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_GET_DELAYED_RSP_ID
DESCRIPTION
This function gets the delayed response ID field in the
DIAG_SUBSYS_CMD_VER_2_F packet.
This function's first argument (ptr) should always be DIAG_SUBSYS_CMD_VER_2_F
packet.
===========================================================================*/
diagpkt_subsys_delayed_rsp_id_type diagpkt_subsys_get_delayed_rsp_id
(void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_RESET_DELAYED_RSP_ID
DESCRIPTION
This function sets the delayed response ID to zero in the
DIAG_SUBSYS_CMD_VER_2_F packet.
This function's first argument (ptr) should always be DIAG_SUBSYS_CMD_VER_2_F
packet.
===========================================================================*/
void diagpkt_subsys_reset_delayed_rsp_id (void *ptr);
/*===========================================================================
FUNCTION DIAGPKT_SUBSYS_SET_RSP_CNT
DESCRIPTION
This function sets the response count in the DIAG_SUBSYS_CMD_VER_2_F packet.
This function's first argument (ptr) should always be DIAG_SUBSYS_CMD_VER_2_F
packet.
===========================================================================*/
void diagpkt_subsys_set_rsp_cnt (void *ptr,
diagpkt_subsys_rsp_cnt rsp_cnt);
/*===========================================================================
FUNCTION DIAGPKT_ERR_RSP
DESCRIPTION
This function builds an error packet.
Usage: rsp_ptr = diagpkt_err_rsp ( error_code, req_pkt );
===========================================================================*/
void *diagpkt_err_rsp (diagpkt_cmd_code_type code,
void *req_ptr, uint16 req_len);
/*===========================================================================
FUNCTION DIAGPKT_ASYNC_BLOCK
DESCRIPTION
This procedure blocks while we wait for the DIAG_ASYNC_BLOCK_SIG to be set
to allow for asynchronous delays in packet handling.
============================================================================*/
void diagpkt_async_block (void);
/*===========================================================================
FUNCTION DIAGPKT_ASYNC_RELEASE
DESCRIPTION
This procedure sets the DIAG_ASYNC_BLOCK_SIG to end the asynchronous delay
started with DIAGPKT_ASYNC_BLOCK
============================================================================*/
void diagpkt_async_release (void);
/*-------------------------------------------------------------
Diagnostics Packet Type Defintion Macros
These macros were defined to provide and enforce naming
conventions for declaring packets. However, these macros
make editor tags useless and add consufion. The use of
these macros has been deprecated, but is included here for
compatibility with existing usage. The naming convention
enforced by these macros is not required for use of this
service.
!!! It is not recommended to continue use of these macros.
The naming convention enforced by these macros is outlined
below:
Command codes use the naming convention: DIAG_xxx_F
Requests types:
DIAG_xxx_F_req_type
Response types:
DIAG_xxx_F_rsp_type
-------------------------------------------------------------*/
#ifndef FEATURE_DIAG_EXPOSED_HEADER
#define DIAGPKT_REQ_DEFINE( xx_cmd_code ) \
typedef struct xx_cmd_code##_req_tag \
xx_cmd_code##_req_type; \
PACK(struct) xx_cmd_code##_req_tag { \
diagpkt_header_type xx_header;
#else
#define DIAGPKT_REQ_DEFINE( xx_cmd_code ) \
typedef struct xx_cmd_code##_req_tag \
xx_cmd_code##_req_type; \
PACK(struct) xx_cmd_code##_req_tag { \
diagpkt_cmd_code_type command_code;
#endif
#define DIAGPKT_REQ_END };
/* If the response is the same structure as the request... */
#define DIAGPKT_DEFINE_RSP_AS_REQ( xx_cmd_code ) \
typedef xx_cmd_code##_req_type xx_cmd_code##_rsp_type;
#ifndef FEATURE_DIAG_EXPOSED_HEADER
#define DIAGPKT_RSP_DEFINE( xx_cmd_code ) \
typedef struct xx_cmd_code##_rsp_tag \
xx_cmd_code##_rsp_type; \
PACK(struct) xx_cmd_code##_rsp_tag { \
diagpkt_header_type xx_header;
#else
#define DIAGPKT_RSP_DEFINE( xx_cmd_code ) \
typedef struct xx_cmd_code##_rsp_tag \
xx_cmd_code##_rsp_type; \
PACK(struct) xx_cmd_code##_rsp_tag { \
diagpkt_cmd_code_type command_code;
#endif
#define DIAGPKT_RSP_END };
/*-------------------------------------------------------------
Diagnostics Subsystem Packet Type Definition Macros
These macros were defined to provide and enforce naming
conventions for declaring packets.
!!! It is not recommended to continue use of these macros.
The naming convention enforced by these macros is outlined
below:
Diag has a subsystem command that dispatches diag commands to
various subsystems. All subsystem packet types use the same
naming convention throughout the DMSS. The subsystem command
uses a 16 bit command code per subsystem. This results in
user data starting on a 32 bit boundary.
The naming convention is as follows:
Command codes use the naming convnetion: DIAG_SUBSYS_xxx_F
Requests types:
DIAG_SUBSYS_xxx_yyy_req_type
Response types:
DIAG_SUBSYS_xxx_yyy_rsp_type
-------------------------------------------------------------*/
#define DIAGPKT_SUBSYS_REQ_DEFINE( xx_subsys, xx_subsys_cmd_code ) \
typedef struct DIAG_SUBSYS_##xx_subsys##_##xx_subsys_cmd_code##_req_tag \
DIAG_SUBSYS_##xx_subsys##_##xx_subsys_cmd_code##_req_type; \
PACK(struct) DIAG_SUBSYS_##xx_subsys##_##xx_subsys_cmd_code##_req_tag { \
diagpkt_subsys_header_type xx_header;
#define DIAGPKT_SUBSYS_REQ_END };
#define DIAGPKT_SUBSYS_RSP_DEFINE( xx_subsys, xx_subsys_cmd_code ) \
typedef struct DIAG_SUBSYS_##xx_subsys##_##xx_subsys_cmd_code##_rsp_tag \
DIAG_SUBSYS_##xx_subsys##_##xx_subsys_cmd_code##_rsp_type; \
PACK(struct) DIAG_SUBSYS_##xx_subsys##_##xx_subsys_cmd_code##_rsp_tag { \
diagpkt_subsys_header_type xx_header;
#define DIAGPKT_SUBSYS_RSP_END };
#ifdef FEATURE_DIAG_PACKET_COUPLING
/* As a temporary measure, this is added since mclog.h expects packet
definitions to be defined in diagpkt.h Once mclog.h is updated, this can
be removed. */
#include "diagcmd.h" /* mclog.c needs to include this */
#include "cdma2kdiag.h"
#include "parmdiag.h"
#endif
#ifdef __cplusplus
}
#endif
#endif /* DIAGPKT_H */

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#ifndef EVENT_H
#define EVENT_H
/*===========================================================================
Event Reporting Services
General Description
All declarations and definitions necessary to support the static
system event reporting service.
# Copyright (c) 2007-2011 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
$Header: //depot/asic/msmshared/services/diag/Diag_1.5/Diag_LSM/event.h#1 $
when who what, where, why
-------- --- ----------------------------------------------------------
01/02/08 mad Added extern "C" modifiers for function declarations
05/14/04 eav Added FEATURE_SAVE_DEBUG_TRACE. Added the function
event_save_circ_buffer_to_efs, which is called from err.c
04/17/01 lad Moved constants to diagtune.h.
Moved event definitions to event_defs.h.
02/23/01 lad Updated API for core diagnostics service.
11/17/00 jal Bit fields in event_id_type came out in inverted order
from what we wanted. Fixed.
11/13/00 lcc Added event and type definitions for some events.
11/10/00 lad Made obsolete event_report_data() a macro to NULL.
11/09/00 jal Took the old event IDs out (again!)
11/07/00 jal Renamed event_extra_data_type to event_payload_type
10/17/00 jal Changes for new event accumulation mechanism
05/15/00 lad Changed truncated timsteamp from uint32 to uint16.
04/11/00 lad Increased # of customer reserved event IDs to 0x100.
12/16/99 lad Added support for event reporting service.
01/21/99 lad Created file.
===========================================================================*/
/* Since the IDs and type definitions are part of the API, include it here */
#include "event_defs.h"
/* -------------------------------------------------------------------------
Function Defintions
------------------------------------------------------------------------- */
#ifdef __cplusplus
extern "C"
{
#endif
/*===========================================================================
FUNCTION EVENT_REPORT
DESCRIPTION
Report an event.
DEPENDENCIES
Event services must be initialized.
RETURN VALUE
None.
SIDE EFFECTS
None.
===========================================================================*/
void event_report (event_id_enum_type event_id);
/*===========================================================================
FUNCTION EVENT_REPORT_PAYLOAD
DESCRIPTION
Report an event with payload data.
DEPENDENCIES
Event services must be initialized.
RETURN VALUE
None.
SIDE EFFECTS
None.
===========================================================================*/
void event_report_payload (event_id_enum_type event_id, uint8 length, void *data);
#ifdef __cplusplus
}
#endif /* for extern "C" modifier */
#endif /* EVENT_H */

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#ifndef LOG_H
#define LOG_H
/*===========================================================================
Logging Service Header File
General Description
This file contains the API for the logging service.
The logging service allows clients to send information in the form of a
log record to the external device that is collecting logs (i.e., QXDM).
!!! Important usage note:
The logging service uses a memory management system for logging outbound
information. Due to limited resources, this memory management system is a
FIFO queueing system with no garbage collection. Queue insertion occurs at
the time a logging buffer is allocated, not when it is commmited. When you
allocate a buffer, that buffer blocks the emptying of the FIFO until that
log record is commmited. Therefore, if you hold onto a buffer for a long
time, no other log records can be sent until you commit (or free) your
buffer. If you need to accumulate data for a log record, you must
accumulate it in your own memory space, not the memory allocated by the
logging service. When ready to send, call log_submit().
General usage:
ptr = log_alloc(code, length);
if (ptr) {
//Fill in log record here
log_commit(ptr);
}
# Copyright (c) 2007-2011, 2014, 2016 by Qualcomm Technologies, Inc. All Rights Reserved.
# Qualcomm Technologies Proprietary and Confidential.
===========================================================================*/
/*===========================================================================
Edit History
$Header: //depot/asic/msmshared/services/diag/Diag_1.5/Diag_LSM/log.h#1 $
when who what, where, why
-------- --- ----------------------------------------------------------
10/01/08 SJ Changes for CBSP2.0
01/16/08 JV Modified comments and descriptions as per Diag 1.5A (WM)
09/18/02 lad Created file from old version. Content has been removed
from this file, leaving only the logging service API.
===========================================================================*/
#include "log_codes.h"
/* -------------------------------------------------------------------------
Definitions and Declarations
------------------------------------------------------------------------- */
/* Log code type. Currently this is 16 bits. */
typedef uint16 log_code_type;
/* Log Record Header Type:
Currently, all log records structure definitions must begin with
log_hdr_type. This place holder is needed for the internal
implementation of the logging service to function properly.
!!! Notice: Do not reference this header directly. In planned future
versions of this service, this type will be typedef void, and the header
will be transparant to the user of this service. Any direct reference
to this type will not compile when this enhancement is implemented. */
#if !defined(FEATURE_LOG_EXPOSED_HEADER)
typedef PACK(struct
{
unsigned char header[12]; /* A log header is 12 bytes long */
}) log_hdr_type;
#else
/* Some clients, for legacy reasons, reference the log header. Until those
references are cleaned up, the logging service must expose the header
to avoid compilation failure. */
typedef PACK(struct
{
word len; /* Specifies the length, in bytes of the
entry, including this header. */
word code; /* Specifies the log code for the entry as
enumerated above. Note: This is
specified as word to guarantee size. */
// removed AMSS specific code
//qword ts; The system timestamp for the log entry. The
/*upper 48 bits represent elapsed time since
6 Jan 1980 00:00:00 in 1.25 ms units. The
low order 16 bits represent elapsed time
since the last 1.25 ms tick in 1/32 chip
units (this 16 bit counter wraps at the
value 49152). */
uint32 ts_lo; /* Time stamp */
uint32 ts_hi;
})
log_hdr_type;
#endif /* !FEATURE_LOG_EXPOSED_HEADER */
/* Indicates which type of time stamp to use when setting a time stamp. */
typedef enum
{
LOG_TIME_IND_CDMA_E,
LOG_TIME_IND_MSP_E,
LOG_TIME_IND_WCDMA_E
}
log_time_indicator_type;
/* -------------------------------------------------------------------------
Function Declarations
------------------------------------------------------------------------- */
#ifdef __cplusplus
extern "C"
{
#endif
/*===========================================================================
FUNCTION LOG_ALLOC
DESCRIPTION
This function allocates a buffer of size 'length' for logging data. The
specified length is the length of the entire log, including the log
header. This operation is inteneded only for logs that do not require
data accumulation.
!!! The header is filled in automatically by this routine.
DEPENDENCIES:
CS needs to be initialized.
log_commit() or log_free() must be called ASAP after this call.
RETURN VALUE
A pointer to the allocated buffer is returned on success.
Expect a NULL when gnDiagSvcMalloc_Initialized is not initialized
or if heap is full.
SIDE EFFECTS
Since this allocation is made from a shared resource pool, log_commit()
or log_free() must be called as soon as possible and in a timely fashion.
If you need to log accumulated data, store the accumulated data in your
own memory space and use log_submit() to log the data.
===========================================================================*/
void *log_alloc (log_code_type code, unsigned int length);
#define log_alloc_ex(a, b) log_alloc (a, b)
/*===========================================================================
FUNCTION LOG_SHORTEN
DESCRIPTION
This function shortens the length of a previously allocated logging buffer in
legacy code. This is used when the size of the record is not known at allocation
time.Now that diagbuf is not used in the LSM layer and we just use memory from
a pre-allocated pool, calling log_shorten, does not free the excess memory, it just
updates the length field.
DEPENDENCIES
This must be called prior to log_commit().
RETURN VALUE
None.
===========================================================================*/
void log_shorten (void *log_ptr, unsigned int length);
/*===========================================================================
FUNCTION LOG_COMMIT
DESCRIPTION
This function commits a log buffer allocated by log_alloc(). Calling this
function tells the logging service that the user is finished with the
allocated buffer.
DEPENDENCIES
'ptr' must point to the address that was returned by a prior call to
log_alloc().
RETURN VALUE
None.
SIDE EFFECTS
Since this allocation is made from a shared resource pool, this must be
called as soon as possible after a log_alloc call. This operation is not
intended for logs that take considerable amounts of time ( > 0.01 sec ).
===========================================================================*/
void log_commit (void *ptr);
/*===========================================================================
FUNCTION LOG_FREE
DESCRIPTION
This function frees the buffer in pre-allocated memory.
DEPENDENCIES
'ptr' must point to a log entry that was allocated by log_alloc().
===========================================================================*/
void log_free (void *ptr);
/*===========================================================================
FUNCTION LOG_SUBMIT
DESCRIPTION
This function is called to log an accumlated log entry. If logging is
enabled for the entry by the external device, then the entry is copied
into the diag allocation manager and commited immediately.
This function essentially does the folliwng:
log = log_alloc ();
memcpy (log, ptr, log->len);
log_commit (log);
RETURN VALUE
Boolean indicating success.
===========================================================================*/
boolean log_submit (void *ptr);
/*===========================================================================
FUNCTION LOG_SET_LENGTH
DESCRIPTION
This function sets the length field in the given log record.
!!! Use with caution. It is possible to corrupt a log record using this
command. It is intended for use only with accumulated log records, not
buffers returned by log_alloc().
===========================================================================*/
void log_set_length (void *ptr, unsigned int length);
/*===========================================================================
FUNCTION LOG_SET_CODE
DESCRIPTION
This function sets the logging code in the given log record.
===========================================================================*/
void log_set_code (void *ptr, log_code_type code);
/*===========================================================================
FUNCTION LOG_SET_TIMESTAMP
DESCRIPTION
This function captures the system time and stores it in the given log record.
===========================================================================*/
void log_set_timestamp (
#ifdef FEATURE_ZREX_TIME
void *ptr, log_time_indicator_type time_type
#else
void *ptr
#endif
);
/*===========================================================================
FUNCTION LOG_GET_LENGTH
DESCRIPTION
This function returns the length field in the given log record.
RETURN VALUE
An unsigned int, the length
===========================================================================*/
unsigned int log_get_length (void *ptr);
/*===========================================================================
FUNCTION LOG_GET_CODE
DESCRIPTION
This function returns the log code field in the given log record.
RETURN VALUE
log_code_type, the code
===========================================================================*/
log_code_type log_get_code (void *ptr);
/*===========================================================================
FUNCTION LOG_STATUS
DESCRIPTION
This function returns whether a particular code is enabled for logging.
===========================================================================*/
boolean log_status (log_code_type code);
/*===========================================================================
FUNCTION LOG_PROCESS_LSM_MASK_REQ
DESCRIPTION
Handles requests from LSM to transfer the event mask.
============================================================================*/
//int log_process_LSM_mask_req (unsigned char* mask, int maskLen, int * maskLenReq);
/* Not required here, not an external API */
/*===========================================================================
NOTE: No function pointer support in diag1.5A. These 2 functions are just stubs
FUNCTION TYPE LOG_ON_DEMAND
DESCRIPTION
This function, provided via reference by the caller, indicates a trigger
for the specified log code issued from the external device. This routine
must return status, which is send to the external device.
DEPENDENCIES
None.
RETURN VALUE
'log_on_demand_status_enum_type'
SIDE EFFECTS
None.
===========================================================================*/
typedef enum
{
LOG_ON_DEMAND_SENT_S = 0,
LOG_ON_DEMAND_ACKNOWLEDGE_S,
LOG_ON_DEMAND_DROPPED_S,
LOG_ON_DEMAND_NOT_SUPPORTED_S,
LOG_ON_DEMAND_FAILED_ATTEMPT_S
}
log_on_demand_status_enum_type;
typedef log_on_demand_status_enum_type (*log_on_demand) (log_code_type
log_code);
/*===========================================================================
FUNCTION LOG_ON_DEMAND_REGISTER
DESCRIPTION
This function registers a function pointer to be associated with a
log code for logging on demand. If the external device sends a request
to trigger this log code, the function will be called. The logging
must be performed by the client of this service. It will not be
performed by the logging service itself.
===========================================================================*/
boolean log_on_demand_register (log_code_type log_code,
log_on_demand log_on_demand_ptr);
/*===========================================================================
FUNCTION LOG_ON_DEMAND_UNREGISTER
DESCRIPTION
This function unregisters the log function
===========================================================================*/
boolean log_on_demand_unregister (log_code_type log_code);
/*===========================================================================
MACRO LOG_RECORD_DEFINE
MACRO LOG_RECORD_END
DESCRIPTION
These macros were defined to provide and enforce naming
conventions for declaring packets. However, these macros
make editor tags useless and add consufion. The use of
these macros has been deprecated, but is included here for
compatibility with existing usage. The naming convention
enforced by these macros is not required for use of this
service.
!!! It is not recommended to continue use of these macros.
All that is required for defining a log structure is to place
a member of 'log_hdr_type' at the top of the structure. Do not
access this member directly as this type is slated to be type-cast
to 'void' when extending the logging service beyond 16-bit log codes.
The naming convention enforced by these macros is outlined
below:
Log codes use the naming convention LOG_xxx_F.
This macro expands the name of the defined structure to be:
LOG_xxx_C_type
===========================================================================*/
#ifdef FEATURE_LOG_EXPOSED_HEADER
#define LOG_RECORD_DEFINE( xx_code ) \
typedef struct xx_code##_tag xx_code##_type; \
PACK(struct) xx_code##_tag { \
log_hdr_type hdr;
#else
#define LOG_RECORD_DEFINE( xx_code ) \
typedef struct xx_code##_tag xx_code##_type; \
PACK(struct) xx_code##_tag { \
log_hdr_type xx_hdr;
#endif
#define LOG_RECORD_END };
#if defined(FEATURE_DIAG_PACKET_COUPLING)
/* In legacy versions, log.h contains log packet definitions. Those
definitions have been moved to a separate file to isolate coupling. */
#include "log_dmss.h"
#endif
#ifdef __cplusplus
}
#endif
#endif /* LOG_H */

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#ifndef MSG_ARRAYS_I_H
#define MSG_ARRAYS_I_H
/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
DIAGNOSTIC MESSAGE SERVICE: ARRAYS FOR BUILD/RUN-TIME MASKS
GENERAL DESCRIPTION
Internal Header File. Contains structures/definitions for message masks.
Copyright (c) 2009 by Qualcomm Technologies, Inc.
All Rights Reserved.
Qualcomm Technologies Confidential and Proprietary
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================
EDIT HISTORY FOR FILE
$Header: //source/qcom/qct/core/services/diag/main/latest/diag_mask_tbl/src/msg_arrays_i.h#1 $
when who what, where, why
-------- --- ----------------------------------------------------------
11/10/09 sg Moved MSG_MASK_TBL_CNT to msgcfg.h
09/29/09 mad Created from msgcfg.h.
===========================================================================*/
#include "comdef.h"
/*---------------------------------------------------------------------------
This is the structure used for both the build mask array and the RT mask
array. It consists of a range of IDs and a pointer to an array indexed
as follows:
index:
SSID - ssid_start
Total # of entries:
ssid_last - ssid_first + 1;
---------------------------------------------------------------------------*/
typedef struct
{
uint16 ssid_first; /* Start of range of supported SSIDs */
uint16 ssid_last; /* Last SSID in range */
/* Array of (ssid_last - ssid_first + 1) masks */
const uint32 *bt_mask_array;
uint32 *rt_mask_array;
}
msg_mask_tbl_type;
extern const msg_mask_tbl_type msg_mask_tbl[];
/* Number of SSID range entries in table */
#endif /* MSG_ARRAYS_I_H */

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#ifndef MSG_PKT_DEFS_H
#define MSG_PKT_DEFS_H
/*!
@ingroup diag_message_service
@file msg_pkt_defs.h
@brief
Diagnostic Debug Message Service Packet Definitions and structures
@par OVERVIEW:
The debug message service provides printf()-style debugging
with build-time and run-time granularity. This granularity
is achieved by assigning various technology areas to a
subsystem within the service. Each subsystem defines up to
32 categories (denoted by a 32-bit mask) by which debug
messages may be identified. The external device may
configure each subsystem individually using a 32-bit mask
for each subsystem.
@par TERMINOLOGY:
Subsystem ID (SSID):
Unique identifer given to each subsystem within the target.
@par Subsystem Mask:
32-bit value with each bit denotes a category assigned by
the technology area assigned to the subsystem ID.
'1' denotes the category is enabled.
'0' denotes the category is disabled.
This mask is specified with the definition of each message.
@par Build Mask:
A 32-bit mask specified at compile-time to determine which
messages are to be compiled in for each subsystem. This
build-time granularity is available to enable build managers
to compile out certain categories of messages to save ROM.
During compilation, a bitwise AND ('&') is performed between
the Build Mask and the Subsystem Mask of each message. If
the '&' operation is non-zero, the message is compiled in.
@par Run-Time Mask (RT Mask):
A 32-bit mask specified at by the external device at run-time
to configure messages for a subsystem. At run-time, the
message's Subsystem Mask the subsystem's RT Mask are compared
with a bitwise AND ('&'). If the result if non-zero, the
message service attempts to send the message.
@par Dropped Message:
If insuffient resources exist to send a message that is
enabled, the message is dropped. The next successful message
sent will contain a count of the number of messages dropped
since the last successful message.
@note
These packet definitions are part of an externalized
diagnostic command interface, defined in 80-V1294-1
(CDMA Dual-Mode Subscriber Station Serial Data Interface Control
Document). These definitions must not be changed.
*/
/*
Copyright (c) 2002-2011, 2014 by Qualcomm Technologies, Inc. All Rights Reserved.
*/
/*===========================================================================
Edit History
$Header: //source/qcom/qct/core/api/services/diag/main/latest/msg_pkt_defs.h#2 $
when who what, where, why
-------- --- ----------------------------------------------------------
05/27/10 mad Doxygenated.
01/23/09 sg Moved msg_desc_type, msg_hdr_type here
05/15/09 mad Moved msg_desc_type, msg_hdr_type to msg.h. Included msg.h.
10/03/08 vg Updated code to use PACK() vs. PACKED
04/23/07 as Enabled pragma pack support for WINCE targets
11/04/04 as Added GW field for WCDMA phones in msg_ts_type
07/23/02 lad Updated to reflect requirements changes and final
implementation.
03/22/02 igt Created file.
===========================================================================*/
#include "comdef.h"
/* --------------------------------------------------------------------------
Definitions and Declarations
----------------------------------------------------------------------- */
/*!
@ingroup diag_message_service
This structure is stored in ROM and is copied blindly by the phone.
The values for the fields of this structure are known at compile time.
So this is to be defined as a "static const" in the MACRO, so it ends up
being defined and initialized at compile time for each and every message
in the software. This minimizes the amount of work to do during run time.
So this structure is to be used in the "caller's" context. "Caller" is the
client of the Message Services.
*/
typedef struct {
uint16 line; /*!< Line number in source file */
uint16 ss_id; /*!< Subsystem ID */
uint32 ss_mask; /*!< Subsystem Mask */
} msg_desc_type;
/*!
@ingroup diag_message_service
This is the message HEADER type. It contains the beginning fields of the
packet and is of fixed length. These fields are filled by the calling task.
*/
typedef struct {
uint8 cmd_code; /*!< Command code */
uint8 ts_type; /*!< Time stamp type */
uint8 num_args; /*!< Number of arguments in message */
uint8 drop_cnt; /*!< number of messages dropped since last successful message */
uint32 ts_lo; /* Time stamp */
uint32 ts_hi;
} msg_hdr_type;
/*!
@ingroup diag_message_service
This structure defines the Debug message packet :command-code 125, DIAG_MSG_EXT_F.
Provides debug messages with NULL terminated filename and format fields, a
variable number of 32-bit parameters, an originator-specific timestamp
format and filterability via subsystem ids and masks.
@par
For simplicity, only 'long' arguments are supported. This packet
allows for N arguments, though the macros support a finite number.
@note
This is the structure that is used to represent the final structure that is
sent to the external device. 'msg_ext_store_type' is expanded to this
structure in DIAG task context at the time it is sent to the communication
layer.
*/
typedef struct {
msg_hdr_type hdr; /*!< Header */
msg_desc_type desc; /*!< line number, SSID, mask */
uint32 args[1]; /*!< Array of long args, specified by 'hdr.num_args' */
/*!< followed by NULL terminated format and file strings */
} msg_ext_type;
/*---------------------------------------------------------------------------
This is the structure that is used to represent the final structure that
is sent to the external device. 'msg_ext_store_type' is expanded to this
structure in DIAG task context at the time it is sent to the comm layer.
---------------------------------------------------------------------------*/
typedef struct
{
msg_hdr_type hdr;
msg_desc_type desc;
uint32 msg_hash;
uint32 args[1];
} msg_qsr_type;
#endif /* MSG_PKT_DEFS_H */

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#ifndef MSG_QSR_H
#define MSG_QSR_H
/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
EXTENDED DIAGNOSTIC QSHRINK MESSAGE SERVICE HEADER FILE
GENERAL DESCRIPTION
All the declarations and definitions necessary to support the optimized f3
messages for errors and debugging. This includes support for the
extended capabilities as well as the legacy messaging scheme.
Copyright (c) 2009-2011, 2014 by Qualcomm Technologies, Inc.
All Rights Reserved.
Qualcomm Technologies Confidential and Proprietary
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================
EDIT HISTORY FOR FILE
$Header: //depot/asic/msmshared/services/diag/MSMSHARED_DIAG_1.2/msg_qsr.h#2 $
when who what, where, why
-------- --- ----------------------------------------------------------
10/11/09 vg 8200 Warning Clean Up
20/05/09 ps Created new file for qsr feature based on msg.h
===========================================================================*/
/*===========================================================================
INCLUDE FILES FOR MODULE
===========================================================================*/
#include "comdef.h" /* Definitions for byte, word, etc. */
#include "msg_pkt_defs.h"
#include "msgcfg.h"
/*---------------------------------------------------------------------------
The extended message packet is defined to be processed as efficiently as
possible in the caller's context. Therefore, the packet is divided into
logical blocks that are aligned w/out declaring the structure as PACK.
A header, static constant block, and argument list are defined to minimize
the work done by the caller's task.
1. Header
2. Constant variable length data (format string and filename string, etc).
3. Arguments ("Variable" variable-length data)
The data is delivered in this order in the packet to simplify the runtime
processing of each message. All constant data is handled in DIAG task
context, leaving the caller's task to only process variable data at runtime.
The phone will never process the constant data directly, except to copy
format and filename strings.
---------------------------------------------------------------------------*/
/*---------------------------------------------------------------------------
All constant information stored for a message.
The values for the fields of this structure are known at compile time.
So this is to be defined as a "static " in the MACRO, so it ends up
being defined and initialized at compile time for each and every message
in the software. This minimizes the amount of work to do during run time.
So this structure is to be used in the "caller's" context. "Caller" is the
client of the Message Services.
---------------------------------------------------------------------------*/
typedef struct
{
msg_desc_type desc; /* ss_mask, line, ss_id */
uint32 msg_hash; /* message hash value */
}
msg_qsr_const_type;
/*---------------------------------------------------------------------------
This is the structure that is stored by the caller's task in msg_send ().
The DIAG task will expand the constant data into the final packet before
sending to the external device.
---------------------------------------------------------------------------*/
typedef struct
{
msg_hdr_type hdr;
const msg_qsr_const_type* qsr_const_data_ptr; /* desc */
uint32 args[1];
}
msg_qsr_store_type;
#define XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash) \
static const msg_qsr_const_type xx_msg_qsr_const = { \
{__LINE__, (xx_ss_id), (xx_ss_mask)}, hash}
#define XX_QSR_MSG_CONST_FMT_VAR(xx_ss_id, xx_ss_mask,hash) \
const msg_qsr_const_type xx_msg_qsr_const = { \
{__LINE__, (xx_ss_id), (xx_ss_mask)}, hash}
/*---------------------------------------------------------------------------
These are the message macros that support messages with variable number
of parameters and message text of over 40 characters.
This is the macro for messages with no params but only a text string.
---------------------------------------------------------------------------*/
#define QSR_MSG(hash, xx_ss_id, xx_ss_mask, xx_fmt) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send (&xx_msg_qsr_const); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
Macro for messages with 1 parameter.
---------------------------------------------------------------------------*/
#define QSR_MSG_1(hash, xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_1 (&xx_msg_qsr_const, (uint32)(xx_arg1)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
Macro for messages with 2 parameters.
---------------------------------------------------------------------------*/
#define QSR_MSG_2(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_2 (&xx_msg_qsr_const,(uint32)(xx_arg1), (uint32)(xx_arg2)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 3 parameters.
---------------------------------------------------------------------------*/
#define QSR_MSG_3(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_3( &xx_msg_qsr_const,(uint32) (xx_arg1), (uint32) (xx_arg2), \
(uint32) (xx_arg3)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 4 parameters. In this case the function
called needs to have more than 4 parameters so it is going to be a slow
function call. So for this case the msg_send_var() uses var arg list
supported by the compiler.
---------------------------------------------------------------------------*/
#define QSR_MSG_4(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3, \
xx_arg4) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_var (&xx_msg_qsr_const, (uint32)(4), \
(uintptr_t) (xx_arg1), (uintptr_t) (xx_arg2), \
(uintptr_t) (xx_arg3), (uintptr_t) (xx_arg4)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 5 parameters. msg_send_var() uses var
arg list supported by the compiler.
---------------------------------------------------------------------------*/
#define QSR_MSG_5(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3, \
xx_arg4, xx_arg5) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_var(&xx_msg_qsr_const, (uint32)(5), \
(uintptr_t)(xx_arg1), (uintptr_t)(xx_arg2), \
(uintptr_t)(xx_arg3), (uintptr_t)(xx_arg4), \
(uintptr_t)(xx_arg5)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 6 parameters. msg_send_var() uses var
arg list supported by the compiler.
---------------------------------------------------------------------------*/
#define QSR_MSG_6(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3, \
xx_arg4, xx_arg5, xx_arg6) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_var (&xx_msg_qsr_const, (uint32)(6), \
(uintptr_t)(xx_arg1), (uintptr_t)(xx_arg2), \
(uintptr_t)(xx_arg3), (uintptr_t)(xx_arg4), \
(uintptr_t)(xx_arg5), (uintptr_t)(xx_arg6)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 7 parameters. msg_send_var() uses var
arg list supported by the compiler.
---------------------------------------------------------------------------*/
#define QSR_MSG_7(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3, \
xx_arg4, xx_arg5, xx_arg6, \
xx_arg7) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_var(&xx_msg_qsr_const, (uint32)(7), \
(uintptr_t)(xx_arg1), (uintptr_t)(xx_arg2), \
(uintptr_t)(xx_arg3), (uintptr_t)(xx_arg4), \
(uintptr_t)(xx_arg5), (uintptr_t)(xx_arg6), \
(uintptr_t)(xx_arg7)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 8 parameters. msg_send_var() uses var
arg list supported by the compiler.
---------------------------------------------------------------------------*/
#define QSR_MSG_8(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3, \
xx_arg4, xx_arg5, xx_arg6, \
xx_arg7, xx_arg8) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_var(&xx_msg_qsr_const, (uint32)(8), \
(uintptr_t)(xx_arg1), (uintptr_t)(xx_arg2), \
(uintptr_t)(xx_arg3), (uintptr_t)(xx_arg4), \
(uintptr_t)(xx_arg5), (uintptr_t)(xx_arg6), \
(uintptr_t)(xx_arg7), (uintptr_t)(xx_arg8)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
/*---------------------------------------------------------------------------
This is the macro for messages with 9 parameters. msg_send_var() uses var
arg list supported by the compiler.
---------------------------------------------------------------------------*/
#define QSR_MSG_9(hash,xx_ss_id, xx_ss_mask, xx_fmt, xx_arg1, xx_arg2, xx_arg3, \
xx_arg4, xx_arg5, xx_arg6, \
xx_arg7, xx_arg8, xx_arg9) \
do { \
/*lint -e506 -e774*/ \
if (xx_ss_mask & (MSG_BUILD_MASK_ ## xx_ss_id)) { \
/*lint +e506 +e774*/ \
XX_QSR_MSG_CONST(xx_ss_id, xx_ss_mask, hash); \
/*lint -e571 */ \
qsr_msg_send_var(&xx_msg_qsr_const, (uint32)(9), \
(uintptr_t)(xx_arg1), (uintptr_t)(xx_arg2), \
(uintptr_t)(xx_arg3), (uintptr_t)(xx_arg4), \
(uintptr_t)(xx_arg5), (uintptr_t)(xx_arg6), \
(uintptr_t)(xx_arg7), (uintptr_t)(xx_arg8), \
(uintptr_t)(xx_arg9)); \
/*lint +e571 */ \
} \
/*lint -e717 */ \
} while (0) \
/* lint +e717 */
// TODO: MSG_EXPENSIVE: on target string expansion (name?)
/*---------------------------------------------------------------------------
The following MACROs are for LEGACY diagnostic messages support.
---------------------------------------------------------------------------*/
/*===========================================================================
MACRO MSG_FATAL, MSG_ERROR, MSG_HIGH, MSG_MED, MSG_LOW
DESCRIPTION
Output a message to be sent to be picked up by the Diag Task. The
message levels are controlled by selecting the proper macro function.
MSG_FATAL fatal
MSG_ERROR error
MSG_HIGH high
MSG_MED medium
MSG_LOW low
Generation of message generating code is controlled by the setting
of the MSG_LEVEL #define (defined above and on the 'cl' command line).
PARAMETERS
x_fmt Format string for message (printf style). Note, this parameter
must be a string literal (e.g. "Tuned to %lx"), not a variable.
This is because the value is compiled into ROM, and can clearly
not be a dynamic data type.
a 1st parameter for format string
b 2nd parameter for format string
c 3rd parameter for format string
DEPENDENCIES
msg_init() must be called prior to this macro referencing msg_put().
This macro, is multiple C expressions, and cannot be used as if it
is a single expression.
RETURN VALUE
None
SIDE EFFECTS
On the target hardware, the file and format strings are placed in ROM.
===========================================================================*/
#define QSR_MSG_FATAL(hash,x_fmt, a, b, c) \
QSR_MSG_3 (hash,MSG_SSID_DFLT, MSG_LEGACY_FATAL, x_fmt, a, b, c)
#define QSR_MSG_ERROR(hash, x_fmt, a, b, c) \
QSR_MSG_3 (hash, MSG_SSID_DFLT, MSG_LEGACY_ERROR, x_fmt, a, b, c)
#define QSR_MSG_HIGH(hash, x_fmt, a, b, c) \
QSR_MSG_3 (hash, MSG_SSID_DFLT, MSG_LEGACY_HIGH, x_fmt, a, b, c)
#define QSR_MSG_MED(hash,x_fmt, a, b, c) \
QSR_MSG_3 (hash,MSG_SSID_DFLT, MSG_LEGACY_MED, x_fmt, a, b, c)
#define QSR_MSG_LOW(hash,x_fmt, a, b, c) \
QSR_MSG_3 (hash,MSG_SSID_DFLT, MSG_LEGACY_LOW, x_fmt, a, b, c)
#if !(MSG_BUILD_MASK_MSG_SSID_DFLT & MSG_LEGACY_FATAL)
#undef QSR_MSG_FATAL
#define QSR_MSG_FATAL(hash, x_fmt, a, b, c)
#endif
#if !(MSG_BUILD_MASK_MSG_SSID_DFLT & MSG_LEGACY_ERROR)
#undef QSR_MSG_ERROR
#define QSR_MSG_ERROR(hash, x_fmt, a, b, c)
#endif
#if !(MSG_BUILD_MASK_MSG_SSID_DFLT & MSG_LEGACY_HIGH)
#undef QSR_MSG_HIGH
#define QSR_MSG_HIGH(hash, x_fmt, a, b, c)
#endif
#if !(MSG_BUILD_MASK_MSG_SSID_DFLT & MSG_LEGACY_MED)
#undef QSR_MSG_MED
#define QSR_MSG_MED(hash, x_fmt, a, b, c)
#endif
#if !(MSG_BUILD_MASK_MSG_SSID_DFLT & MSG_LEGACY_LOW)
#undef QSR_MSG_LOW
#define QSR_MSG_LOW(hash, x_fmt, a, b, c)
#endif
/* -------------------------------------------------------------------------
Function Definitions
------------------------------------------------------------------------- */
#ifdef __cplusplus
extern "C"
{
#endif
/*===========================================================================
FUNCTION QSR_MSG_SEND
DESCRIPTION
This will build a new style diagnostic Message with no parameters.
Do not call directly; use macro MSG_* defined in msg.h
Send a message through diag output services.
DEPENDENCIES
msg_init() must have been called previously. A free buffer must
be available or the message will be ignored (never buffered).
===========================================================================*/
void qsr_msg_send ( const msg_qsr_const_type * xx_msg_const_ptr);
/*===========================================================================
FUNCTION QSR_MSG_SEND_1
DESCRIPTION
This will build a new style diagnostic Message with 1 parameters.
Do not call directly; use macro MSG_* defined in msg.h
Send a message through diag output services.
DEPENDENCIES
msg_init() must have been called previously. A free buffer must
be available or the message will be ignored (never buffered).
===========================================================================*/
void qsr_msg_send_1 (const msg_qsr_const_type * xx_msg_const_ptr, uint32 xx_arg1);
/*===========================================================================
FUNCTION QSR_MSG_SEND_2
DESCRIPTION
This will build a new style diagnostic Message with 2 parameters.
Do not call directly; use macro MSG_* defined in msg.h
Send a message through diag output services.
DEPENDENCIES
msg_init() must have been called previously. A free buffer must
be available or the message will be ignored (never buffered).
===========================================================================*/
void qsr_msg_send_2 ( const msg_qsr_const_type * xx_msg_const_ptr,uint32 xx_arg1,
uint32 xx_arg2);
/*===========================================================================
FUNCTION QSR_MSG_SEND_3
DESCRIPTION
This will build a new style diagnostic Message with 3 parameters.
Do not call directly; use macro MSG_* defined in msg.h
Send a message through diag output services.
DEPENDENCIES
msg_init() must have been called previously. A free buffer must
be available or the message will be ignored (never buffered).
===========================================================================*/
void qsr_msg_send_3 ( const msg_qsr_const_type * xx_msg_const_ptr, uint32 xx_arg1,
uint32 xx_arg2, uint32 xx_arg3);
/*===========================================================================
FUNCTION QSR_MSG_SEND_VAR
DESCRIPTION
This will build a new style diagnostic Message with var # (4 to 6)
of parameters.
Do not call directly; use macro MSG_* defined in msg.h
Send a message through diag output services.
DEPENDENCIES
msg_init() must have been called previously. A free buffer must
be available or the message will be ignored (never buffered).
===========================================================================*/
void qsr_msg_send_var ( const msg_qsr_const_type * xx_msg_const_ptr, uint32 num_args, ...);
#ifdef __cplusplus
}
#endif
#endif /* MSG_QSR_H */

7038
feeds/wifi-ax/qca-diag/src/include/msgcfg.h Executable file
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File diff suppressed because it is too large Load Diff

847
feeds/wifi-ax/qca-diag/src/include/msgtgt.h Executable file
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@@ -0,0 +1,847 @@
#ifndef MSGTGT_H
#define MSGTGT_H
/*!
@ingroup diag_message_service
@file msgtgt.h
@brief
Target-specific configuration file for Diagnostic Message 2.0 Service
@par
MSG 2.0 offers the ability to utilize more build-time and run-time
filtering of debug messages.
@par
This file is used to customize MSG 2.0 for a specific build. All
definitions here override their counterparts in msgcfg.h.
@par
This file may contain, but is not limited to any or all of the following:
@par
Build masks for known SSIDs , default build mask , max string length
(used to avoid endless strcpy).
@par
Build masks are 32 bits, each specifying a category within a SSID. The
first 5 LSBs are reserved for legacy (Low, Med, High, Error, Fatal). These
can be reused with the tradeoff of any legacy tool interpreting those bits
as legacy message levels.The 27 MSBs in the mask are defined at the discretion
of the technology area associated with the SSID. These are to be published,
so changing the meaning is not allowed.
@note
The definitions of all these constants are omitted in the document for the
sake of brevity.
*/
/*
Copyright (c) 2002-2016 by Qualcomm Technologies, Inc.
All Rights Reserved.
Qualcomm Technologies Confidential and Proprietary
*/
/*===========================================================================
EDIT HISTORY FOR FILE
$Header: //source/qcom/qct/core/api/services/diag/main/latest/msgtgt.h#49 $
when who what, where, why
-------- --- ----------------------------------------------------------
03/31/14 xy Added new message SSIDs
02/25/14 xy Update levels of MSG_BUILD_MASK_MSG_SSID_LTE_RRC
01/29/14 xy Added new message SSIDs
12/03/13 xy Added new message SSIDs
10/09/13 xy Update levels of MSG_BUILD_MASK_MSG_SSID_HDR_DEBUG
09/25/13 xy Added new message SSIDs
07/30/13 sr Added new message SSIDs
06/26/13 sr Added new message SSIDs
05/08/13 sr Added new message SSIDs
04/17/13 sr Support to disable F3 msgs by target team
03/22/13 sr Added new message SSIDs
03/12/13 sr Added new message SSIDs
01/22/13 sr Added new message SSIDs
12/07/12 sr Added new message SSIDs
11/27/12 sr Added new message SSIDs
10/15/12 sr Added new message SSIDs
07/16/12 rh Added new message SSIDs
06/22/12 rh Added new message SSIDs
06/06/12 rh Updated several SSIDs to have different build-time masks.
03/26/12 rh Expanded the TDSCDMA L1 mask to encompass more level categories
02/29/12 rh Added new message SSIDs
02/21/12 is Add MSG_BUILD_MASK_LEGACY catergory to support F3 listener testing
02/17/12 rs Added build mask for MSG_SSID_SEC_WIDEVINE
01/12/12 rh Changed priority level for TDSCDMA SSIDs
01/05/12 rh Added build mask for QCNEA SSIDs
12/08/11 rh Added build mask for MSG_SSID_ADC
11/29/11 rh Added SSID category for CTA
10/18/11 hm Renamed reserved MCS SSIDs
09/01/11 hm Added new WCDMA and TDSCDMA SSIDs
08/05/11 hm Added new SSID
07/01/11 hm Added new SSID
06/10/11 hm Changed default level of AVS SSIDs
05/20/11 hm Changed default level of QCHAT SSIDs
04/25/11 hm Added new SSID
04/05/11 hm Added new SSID for PPM module
03/24/11 hm Reverted Octopus Changes and added new QCHAT SSIDs
03/07/11 hm Added new set of SSIDs for Octopus
02/03/11 hm Changed MSG level for Audio Packet Router (for 8k+9k Fusion)
01/21/11 hm Enabled ML1 messages 21 and 22
07/27/10 sg Added new ssid for Multimedia team
07/07/10 sg Added new SSID for data services team
07/06/10 sg Changed MSG_SSID_MCS_RESERVED_1 to MSG_SSID_FWS
06/28/10 sg Changing MSG_BUILD_MASK_MSG_SSID_RF level to MSG_LVL_LOW
06/10/10 mad Doxygenated
04/27/10 sg Added new SSIDS for Sound Routing Driver , DAL
04/20/10 sg Added new SSIDS for Audio Team
04/09/10 sg Added new SSIDS for OMA device management
Secure Instant Wireless Access
04/02/10 sg Added inclusion of msg_mask.h
03/04/10 sg Added new SSIDs for IMS Team
02/22/10 sg Added new SSIDs for Data Services
02/12/10 sg Modified message level for LTE ML1 SSID
02/08/10 sg Added new SSIDs for IMS team
01/13/10 sg Added new SSID for CAD team
12/22/09 sg Added New SSID for Connectivity Engine Team
11/24/09 sg Changes made to allow target team to define MSG_BUILD_MASK_DFLT,
MSG_BUILD_MASK_MSG_SSID_DFLT
10/28/09 sg Added New SSID for Chaos CoOrdinator Service
10/27/09 sg Added new SSID for Data Services team
10/26/09 sg Fixed the ECALL SSID typo
09/30/09 as Removed feature T_MSM6200 and T_MSM6250
09/23/09 sg Added new SSIDS for ECALL
09/02/09 JV Added new SSIDs for the HDR team
07/27/09 JV New SSID for ANDROID data and DS apps
07/18/09 mad Mainlined FEATUREs: IS2000, HDR, WCDMA, GSM, WLAN, DS, DATA,
HIT.
06/11/09 JV New SSID for data services
05/26/09 JV Added custom levels for LTE F3 SSIDs
05/11/09 JV New SSIDs for Android QCRIL and A2 modules
04/23/09 JV Added SSIDs for the WLAN libra module.
04/10/09 JV Added SSIDs for MCS.
03/16/09 mad Featurized inclusion of customer.h
12/14/04 as Reallocated SSID's used by WinCE to L4LINUX.
03/07/03 lad First SSID deployment.
12/03/02 lad Created file.
===========================================================================*/
#include "comdef.h"
#include "msg.h"
/*!
@name Default build mask
@ingroup diag_message_service
*/
/*!
Default build mask for all uncategorizerd (default) messages. */
#ifndef MSG_BUILD_MASK_DFLT
#define MSG_BUILD_MASK_DFLT MSG_LVL_ERROR
#endif
#ifndef MSG_BUILD_MASK_LEGACY
#define MSG_BUILD_MASK_LEGACY MSG_LVL_HIGH
#endif
/*!
@cond DOXYGEN_BLOAT
*/
/* General SSIDs */
#ifndef MSG_BUILD_MASK_MSG_SSID_DFLT
#define MSG_BUILD_MASK_MSG_SSID_DFLT (MSG_LVL_HIGH)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_LEGACY
#define MSG_BUILD_MASK_MSG_SSID_LEGACY (MSG_LVL_HIGH)
#endif
#define MSG_BUILD_MASK_MSG_SSID_AUDFMT (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_AVS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_BOOT (MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_BT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_CM (MSG_LVL_LOW) //AST req
#define MSG_BUILD_MASK_MSG_SSID_CMX (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DIAG (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_DSM (MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_FTM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_FS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_HS (MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_GPS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MDSP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MMOC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_QDSP (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_REX (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_RF (MSG_LVL_LOW | MSG_MASK_5 | \
MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8)
#define MSG_BUILD_MASK_MSG_SSID_RUIM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_SIO (MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_SD (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_SRM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_TMC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_VS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WMS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MMGPS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_SLEEP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_SAM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_SFAT (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_JOYST (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MFLO (MSG_LVL_MED|MSG_MASK_7 | \
MSG_MASK_8|MSG_MASK_9|MSG_MASK_10|MSG_MASK_11|MSG_MASK_12 | \
MSG_MASK_13|MSG_MASK_14|MSG_MASK_15|MSG_MASK_16 | \
MSG_MASK_17|MSG_MASK_18|MSG_MASK_19|MSG_MASK_20|MSG_MASK_21)
#define MSG_BUILD_MASK_MSG_SSID_DTV (MSG_LVL_MED|MSG_MASK_5 | \
MSG_MASK_6|MSG_MASK_7|MSG_MASK_8|MSG_MASK_9|MSG_MASK_10| \
MSG_MASK_11|MSG_MASK_12|MSG_MASK_13|MSG_MASK_14| \
MSG_MASK_15|MSG_MASK_16|MSG_MASK_17)
#define MSG_BUILD_MASK_MSG_SSID_TCXOMGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_EFS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_IRDA (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_FM_RADIO (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_AAM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_BM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_PE (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_QIPCALL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_FLUTE (MSG_LVL_MED|MSG_MASK_5 | \
MSG_MASK_6|MSG_MASK_7|MSG_MASK_8)
#define MSG_BUILD_MASK_MSG_SSID_CAMERA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_HSUSB (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_FC (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_USBHOST (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_PROFILER (MSG_LVL_HIGH)
#ifndef MSG_BUILD_MASK_MSG_SSID_MGP
#define MSG_BUILD_MASK_MSG_SSID_MGP (MSG_LVL_MED)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_MGPME
#define MSG_BUILD_MASK_MSG_SSID_MGPME (MSG_LVL_MED|MSG_MASK_5 | \
MSG_MASK_6|MSG_MASK_7|MSG_MASK_8|MSG_MASK_9|MSG_MASK_10| \
MSG_MASK_11|MSG_MASK_12|MSG_MASK_13|MSG_MASK_14|MSG_MASK_15| \
MSG_MASK_16|MSG_MASK_17|MSG_MASK_18|MSG_MASK_19|MSG_MASK_20| \
MSG_MASK_21|MSG_MASK_22|MSG_MASK_23|MSG_MASK_24|MSG_MASK_25)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_MGPPE
#define MSG_BUILD_MASK_MSG_SSID_MGPPE (MSG_LVL_MED|MSG_MASK_5 | \
MSG_MASK_6|MSG_MASK_7|MSG_MASK_8|MSG_MASK_9|MSG_MASK_10)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_GPSOS
#define MSG_BUILD_MASK_MSG_SSID_GPSOS (MSG_LVL_MED)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_GPSSM
#define MSG_BUILD_MASK_MSG_SSID_GPSSM (MSG_LVL_LOW)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_IMS
#define MSG_BUILD_MASK_MSG_SSID_IMS (MSG_LVL_LOW)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_MBP_RF
#define MSG_BUILD_MASK_MSG_SSID_MBP_RF (MSG_LVL_MED)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_SNS
#define MSG_BUILD_MASK_MSG_SSID_SNS (MSG_LVL_LOW)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_WM
#define MSG_BUILD_MASK_MSG_SSID_WM (MSG_LVL_LOW)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_LK
#define MSG_BUILD_MASK_MSG_SSID_LK (MSG_LVL_LOW)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_PWRDB
#define MSG_BUILD_MASK_MSG_SSID_PWRDB (MSG_LVL_HIGH)
#endif
#define MSG_BUILD_MASK_MSG_SSID_DCVS (MSG_LVL_LOW) /* Dynamic Clock and Voltage Scaling (asw.power req) */
#define MSG_BUILD_MASK_MSG_SSID_ANDROID_ADB (MSG_LVL_LOW) /* Created for Android messages drained from logcat */
#define MSG_BUILD_MASK_MSG_SSID_VIDEO_ENCODER (MSG_LVL_LOW | MSG_MASK_5 | \
MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8) /* Video Encoder request */
#define MSG_BUILD_MASK_MSG_SSID_VENC_OMX (MSG_LVL_LOW | MSG_MASK_5 | \
MSG_MASK_6) /* Video Encoder request */
#define MSG_BUILD_MASK_MSG_SSID_GAN (MSG_LVL_MED) /* Generic Access Network (Requested by Priya Ahire) */
#define MSG_BUILD_MASK_MSG_SSID_KINETO_GAN (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_ANDROID_QCRIL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_A2 (MSG_LVL_MED | MSG_MASK_5 | \
MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9 | MSG_MASK_10 | \
MSG_MASK_11 | MSG_MASK_12 | MSG_MASK_13 | MSG_MASK_14 | MSG_MASK_15 | \
MSG_MASK_16 | MSG_MASK_17 | MSG_MASK_18 | MSG_MASK_19 | MSG_MASK_20)
#define MSG_BUILD_MASK_MSG_SSID_LINUX_DATA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ECALL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_CHORD (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_CAD_GENERAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_OMADM (MSG_LVL_HIGH) /* OMA device management */
#define MSG_BUILD_MASK_MSG_SSID_SIWA (MSG_LVL_HIGH) /* Secure Instant Wireless Access */
#define MSG_BUILD_MASK_MSG_SSID_APR_MODEM (MSG_LVL_LOW) /* Audio Packet Router Modem */
#define MSG_BUILD_MASK_MSG_SSID_APR_APPS (MSG_LVL_LOW) /* Audio Packet Router Apps*/
#define MSG_BUILD_MASK_MSG_SSID_APR_ADSP (MSG_LVL_LOW) /* Audio Packet Router Adsp*/
#define MSG_BUILD_MASK_MSG_SSID_SRD_GENERAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ACDB_GENERAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DALTF (MSG_LVL_HIGH | MSG_MASK_21)
#define MSG_BUILD_MASK_MSG_SSID_CFM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_PMIC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_GPS_SDP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TLE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TLE_XTM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TLE_TLM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TLE_TLM_MM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WWAN_LOC (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_GNSS_LOCMW (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QSET (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_QBI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MMODE_QMI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_MCFG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_SSM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_MPOWER (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_RMTS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADIE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_VT_VCEL (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_FLASH_SCRUB (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_STRIDE (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_POLICYMAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TMS (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_LWIP (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_RFS (MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_RFS_ACCESS (MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_RLC (MSG_LVL_MED | MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_MEMHEAP (MSG_LVL_MED | MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_WCI2 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_LOWI_TEST (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_AOSTLM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_LOWI_AP (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_LOWI_MP (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_LOWI_LP (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_MRE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_SLIM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_WLE (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_WLM (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_Q6ZIP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_RF_DEBUG (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_NV (MSG_LVL_HIGH)
/* ONCRPC related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC_MISC_MODEM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC_MISC_APPS (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC_CM_MODEM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC_CM_APPS (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC_DB (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_ONCRPC_SND (MSG_LVL_HIGH)
/* 1X related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_1X (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_1X_ACP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_1X_DCP (MSG_LVL_MED) //AST req
#define MSG_BUILD_MASK_MSG_SSID_1X_DEC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_1X_ENC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_1X_GPSSRCH (MSG_LVL_MED|MSG_MASK_5)
#ifndef MSG_BUILD_MASK_MSG_SSID_1X_MUX
#define MSG_BUILD_MASK_MSG_SSID_1X_MUX (MSG_LVL_MED)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_1X_SRCH
#define MSG_BUILD_MASK_MSG_SSID_1X_SRCH (MSG_LVL_MED)
#endif
/* HDR related SSIDs */
#ifndef MSG_BUILD_MASK_MSG_SSID_HDR_PROT
#define MSG_BUILD_MASK_MSG_SSID_HDR_PROT (MSG_LVL_MED)
#endif
#define MSG_BUILD_MASK_MSG_SSID_HDR_DATA (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_HDR_SRCH (MSG_LVL_MED)
#ifndef MSG_BUILD_MASK_MSG_SSID_HDR_DRIVERS
#define MSG_BUILD_MASK_MSG_SSID_HDR_DRIVERS (MSG_LVL_MED)
#endif
#define MSG_BUILD_MASK_MSG_SSID_HDR_IS890 (MSG_LVL_MED)
#ifndef MSG_BUILD_MASK_MSG_SSID_HDR_DEBUG
#define MSG_BUILD_MASK_MSG_SSID_HDR_DEBUG (MSG_LVL_MED | MSG_MASK_5 | MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9 | MSG_MASK_10)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_HDR_HIT
#define MSG_BUILD_MASK_MSG_SSID_HDR_HIT (MSG_LVL_MED)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_HDR_PCP
#define MSG_BUILD_MASK_MSG_SSID_HDR_PCP (MSG_LVL_MED)
#endif
#ifndef MSG_BUILD_MASK_MSG_SSID_HDR_HEAPMEM
#define MSG_BUILD_MASK_MSG_SSID_HDR_HEAPMEM (MSG_LVL_MED)
#endif
/* HIT related SSIDs */
#ifndef MSG_BUILD_MASK_MSG_SSID_HIT
#define MSG_BUILD_MASK_MSG_SSID_HIT (MSG_LVL_MED)
#endif
/* QDSP6 related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_QDSP6 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_SVC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_ENCDEC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_VOC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_VS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_MIDI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_POSTPROC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_PREPROC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_AFE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_MSESSION (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_DSESSION (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_AUD_DCM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_VID_ENC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_VID_ENCRPC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_VID_DEC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_VID_DECRPC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_VID_COMMONSW (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_VID_HWDRIVER (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_JPG_ENC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_JPG_DEC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_OMM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_PWRDEM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_RESMGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_CORE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSP_RDA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DSP_TOUCH_TAFE_HAL (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_DSP_TOUCH_ALGORITHM (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_DSP_TOUCH_FRAMEWORK (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_DSP_TOUCH_SRE (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
#define MSG_BUILD_MASK_MSG_SSID_DSP_TOUCH_TAFE_DRIVER (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
/* UMB related SSIDs*/
#define MSG_BUILD_MASK_MSG_SSID_UMB (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_UMB_APP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_UMB_DS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_UMB_CP (MSG_LVL_MED | MSG_MASK_6 | \
MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9)
#define MSG_BUILD_MASK_MSG_SSID_UMB_RLL (MSG_LVL_MED | MSG_MASK_5 | \
MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9 | MSG_MASK_10 | \
MSG_MASK_11 | MSG_MASK_12 | MSG_MASK_13 | MSG_MASK_14 | MSG_MASK_15 | \
MSG_MASK_16 | MSG_MASK_17)
#define MSG_BUILD_MASK_MSG_SSID_UMB_MAC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_UMB_SRCH (MSG_LVL_MED | MSG_MASK_5 | \
MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9 | MSG_MASK_10 | \
MSG_MASK_11 | MSG_MASK_12 | MSG_MASK_13 | MSG_MASK_14 | MSG_MASK_15 | \
MSG_MASK_16 | MSG_MASK_17 | MSG_MASK_18 | MSG_MASK_19 | MSG_MASK_20 | \
MSG_MASK_21 | MSG_MASK_22)
#define MSG_BUILD_MASK_MSG_SSID_UMB_FW (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_UMB_PLT (MSG_LVL_MED)
/* LTE related SSIDs*/
#define MSG_BUILD_MASK_MSG_SSID_LTE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_LTE_RRC (MSG_LVL_LOW | MSG_MASK_8 | MSG_MASK_9 | MSG_MASK_10 | \
MSG_MASK_11 | MSG_MASK_12 | MSG_MASK_13 | MSG_MASK_14 | MSG_MASK_15 | \
MSG_MASK_16 | MSG_MASK_17 | MSG_MASK_18 | MSG_MASK_19 | MSG_MASK_20)
#define MSG_BUILD_MASK_MSG_SSID_LTE_MACUL (MSG_LVL_LOW | MSG_MASK_5 | MSG_MASK_6)
#define MSG_BUILD_MASK_MSG_SSID_LTE_MACDL (MSG_LVL_LOW | MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_LTE_MACCTRL (MSG_LVL_LOW | MSG_MASK_5 | MSG_MASK_6)
#define MSG_BUILD_MASK_MSG_SSID_LTE_RLCUL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_LTE_RLCDL (MSG_LVL_LOW | MSG_MASK_5 | \
MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9)
#define MSG_BUILD_MASK_MSG_SSID_LTE_PDCPUL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_LTE_PDCPDL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_LTE_ML1 (MSG_LVL_LOW | MSG_MASK_5 | MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | \
MSG_MASK_9 | MSG_MASK_10 | MSG_MASK_11 | MSG_MASK_12 | MSG_MASK_13 | MSG_MASK_14 | MSG_MASK_15 | MSG_MASK_16 | \
MSG_MASK_20 | MSG_MASK_21 | MSG_MASK_22)
#define MSG_BUILD_MASK_MSG_SSID_LTE_DISCOVERY (MSG_LVL_LOW)
/* UMTS related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_UMTS (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_WCDMA_L1 (MSG_LVL_HIGH | MSG_MASK_5 | MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | \
MSG_MASK_9 | MSG_MASK_10 | MSG_MASK_11 | MSG_MASK_12 | MSG_MASK_13 | MSG_MASK_14 | MSG_MASK_15 | MSG_MASK_16 | \
MSG_MASK_20 | MSG_MASK_21 | MSG_MASK_22)
#define MSG_BUILD_MASK_MSG_SSID_WCDMA_L2 (MSG_LVL_HIGH | MSG_MASK_5 | MSG_MASK_6)
#define MSG_BUILD_MASK_MSG_SSID_WCDMA_MAC (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_WCDMA_RLC (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_WCDMA_RRC (MSG_LVL_HIGH | MSG_MASK_5 | MSG_MASK_6 | MSG_MASK_7)
#define MSG_BUILD_MASK_MSG_SSID_NAS_CNM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_MM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_MN (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_RABM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_REG (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_SM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_TC (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_NAS_CB (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WCDMA_LEVEL (MSG_LVL_LOW)
/* GSM related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_GSM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_GSM_L1 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_L2 (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_GSM_RR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GCOMMON (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GLLC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GMAC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GPL1 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GRLC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GRR (MSG_LVL_MED|MSG_MASK_5 | MSG_MASK_6 | MSG_MASK_7 | MSG_MASK_8 | MSG_MASK_9)
#define MSG_BUILD_MASK_MSG_SSID_GSM_GPRS_GSNDCP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_WLAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_ADP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_CP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_FTM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_OEM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SEC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_TRP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_1 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_2 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_3 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_4 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_5 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_6 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_7 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_8 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_9 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESERVED_10 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_TL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_BAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SSC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_HDD (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SME (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_PE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_HAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SYS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_VOSS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_ATHOS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_WMI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_HTT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_PS_STA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_PS_IBSS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_PS_AP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SMPS_STA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_WHAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_COEX (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_ROAM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RESMGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_PROTO (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SCAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_BATCH_SCAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_EXTSCAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_BLOCKACK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_TXRX_DATA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_TXRX_MGMT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_BEACON (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_OFFLOAD_MGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_MACCORE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_PCIELP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RTT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_DCS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_CACHEMGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_ANI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_P2P (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_CSA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_NLO (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_CHATTER (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_WOW (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_WMMAC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_TDLS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_HB (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_TXBF (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_THERMAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_DFS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_RMC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_STATS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_NAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_HIF_UART (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_LPI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_MLME (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_SUPPL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_ERE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_WLAN_OCB (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ATS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MSGR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPMGR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_QTF (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_FWS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_SRCH4 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_CMAPI (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MMAL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_QRARB (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_LMTSMGR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MCS_RESERVED_7 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_MCS_RESERVED_8 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_IRATMAN (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_CXM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_VSTMR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_CFCM (MSG_LVL_LOW | MSG_LVL_MED | MSG_LVL_HIGH | MSG_LVL_ERROR | MSG_LVL_FATAL)
/* DS related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_DS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_RLP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_PPP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_TCPIP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_IS707 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_3GMGR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_PS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_MIP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_UMTS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_GPRS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_GSM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_SOCKETS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_ATCOP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_SIO (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_BCMCS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_MLRLP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_RTP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DS_SIPSTACK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DS_ROHC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_DOQOS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_IPC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_SHIM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_ACLPOLICY (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_APPS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_MUX (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_3GPP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_LTE (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_WCDMA (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_ACLPOLICY_APPS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_HDR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_IPA (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_EPC (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_DS_APPSRV (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_SEC (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_CRYPTO (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_SSL (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_IPSEC (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_SFS (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_TEST (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_CNTAGENT (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_RIGHTSMGR (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_ROAP (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_MEDIAMGR (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_IDSTORE (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_IXFILE (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_IXSQL (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_IXCOMMON (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_BCASTCNTAGENT (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_PLAYREADY (MSG_LVL_MED|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_SEC_WIDEVINE (MSG_LVL_MED|MSG_MASK_5)
/* APPS related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_APPS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_APPMGR (MSG_LVL_ERROR)
#define MSG_BUILD_MASK_MSG_SSID_APPS_UI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV (MSG_LVL_LOW|MSG_MASK_5 | \
MSG_MASK_6|MSG_MASK_7|MSG_MASK_8|MSG_MASK_9|MSG_MASK_10| \
MSG_MASK_11|MSG_MASK_12|MSG_MASK_13|MSG_MASK_14|MSG_MASK_15| \
MSG_MASK_16|MSG_MASK_17|MSG_MASK_18|MSG_MASK_19|MSG_MASK_20| \
MSG_MASK_21|MSG_MASK_22)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP_STATISTICS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP_VENCODER (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP_MODEM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP_UI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP_STACK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QVP_VDECODER (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_ACM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_HEAP_PROFILE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_GENERAL (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_DEBUG (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_STATISTICS (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_UI_TASK (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_MP4_PLAYER (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_AUDIO_TASK (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_VIDEO_TASK (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_STREAMING (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_MPEG4_TASK (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_FILE_OPS (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_RTP (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_RTCP (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_RTSP (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_SDP_PARSE (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_ATOM_PARSE (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_TEXT_TASK (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_DEC_DSP_IF (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_STREAM_RECORDING (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_CONFIGURATION (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QCAMERA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QCAMCORDER (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_BREW (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QDJ (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QDTX (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_QTV_BCAST_FLO (MSG_LVL_LOW|MSG_MASK_5)
#define MSG_BUILD_MASK_MSG_SSID_APPS_MDP_GENERAL (MSG_LVL_LOW|MSG_MASK_0| \
MSG_MASK_1|MSG_MASK_2|MSG_MASK_3|MSG_MASK_4|MSG_MASK_5|MSG_MASK_6)
#define MSG_BUILD_MASK_MSG_SSID_APPS_PBM (MSG_LVL_HIGH)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_GENERAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_EGL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_OPENGL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_DIRECT3D (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_SVG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_OPENVG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_2D (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_QXPROFILER (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_DSP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_GRP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_GRAPHICS_MDP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_CAD (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_DPL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_FW (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_SIP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_REGMGR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RTP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_SDP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_VS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_XDM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_HOM (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_IM_ENABLER (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_IMS_CORE (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_FWAPI (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_SERVICES (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_POLICYMGR (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_PRESENCE (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_QIPCALL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_SIGCOMP (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_PSVT (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_UNKNOWN (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_SETTINGS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_OMX_COMMON (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RCS_CD (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RCS_IM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RCS_FT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RCS_IS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RCS_AUTO_CONFIG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_RCS_COMMON (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_UT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_XML (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_APPS_IMS_COM (MSG_LVL_MED)
/* ADSP tasks related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_KERNEL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AFETASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_VOICEPROCTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_VOCDECTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_VOCENCTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_VIDEOTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_VFETASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_VIDEOENCTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_JPEGTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPPTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPLAY0TASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPLAY1TASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPLAY2TASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPLAY3TASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPLAY4TASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_LPMTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_DIAGTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDRECTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_AUDPREPROCTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_MODMATHTASK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_ADSPTASKS_GRAPHICSTASK (MSG_LVL_LOW)
/* L4 LINUX KERNEL related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_L4LINUX_KERNEL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4LINUX_KEYPAD (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4LINUX_APPS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4LINUX_QDDAEMON (MSG_LVL_MED)
/* L4 IGUANA related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_IGUANASERVER (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_EFS2 (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_QDMS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_REX (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_SMMS (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_FRAMEBUFFER (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_KEYPAD (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_NAMING (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_SDIO (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_SERIAL (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_TIMER (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4IGUANA_TRAMP (MSG_LVL_MED)
/* L4 AMSS related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_L4AMSS_QDIAG (MSG_LVL_MED)
#define MSG_BUILD_MASK_MSG_SSID_L4AMSS_APS (MSG_LVL_MED)
/* QCHAT related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_QCHAT (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_CAPP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_CENG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_CREG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_CMED (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_CAUTH (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_QBAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_OSAL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_OEMCUST (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_MULTI_PROC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCHAT_UPK (MSG_LVL_LOW)
/* TDSCDMA related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_TDSCDMA_L1 (MSG_LVL_LOW|MSG_MASK_5|MSG_MASK_6|MSG_MASK_7|MSG_MASK_8|MSG_MASK_9|MSG_MASK_10|MSG_MASK_11|MSG_MASK_12)
#define MSG_BUILD_MASK_MSG_SSID_TDSCDMA_L2 (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TDSCDMA_MAC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TDSCDMA_RLC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_TDSCDMA_RRC (MSG_LVL_LOW)
/* CTA related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_CTA (MSG_LVL_HIGH)
/* QCNEA related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_QCNEA (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CAC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE_CAS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE_CDE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE_COM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE_LEE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE_QMI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_CORE_SRM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_GENERIC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_NETLINK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_NIMS (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_NSRM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_NSRM_CORE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_NSRM_GATESM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_NSRM_TRG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_PLCY (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_PLCY_ANDSF (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_TEST (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_WQE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_WQE_BQE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_WQE_CQE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_WQE_ICD (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_WQE_IFSEL (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_WQE_IFSELRSM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_ATP (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_ATP_PLCY (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_QCNEA_ATP_RPRT (MSG_LVL_LOW)
/* DPM related SSIDs */
#define MSG_BUILD_MASK_MSG_SSID_DPM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_COMMON (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_COM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_QMI (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_DSM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_CONFIG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_GENERIC (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_NETLINK (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_FD_MGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_CT_MGR (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_NSRM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_NSRM_CORE (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_NSRM_GATESM (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_NSRM_TRG (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_TEST (MSG_LVL_LOW)
#define MSG_BUILD_MASK_MSG_SSID_DPM_TCM (MSG_LVL_LOW)
/* Example: specify a build mask for SSID_FOO */
#if 0
#define MSG_BUILD_MASK_MSG_SSID_FOO (MSG_LVL_MED | 0x00ff00)
#endif
/*!
@endcond DOXYGEN_BLOAT
*/
#endif /* MSGTGT_H */

28
feeds/wifi-ax/qca-diag/src/klog/Android.mk Executable file
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@@ -0,0 +1,28 @@
################################################################################
# @file pkgs/stringl/Android.mk
# @brief Makefile for building the string library on Android.
################################################################################
LOCAL_PATH:= $(call my-dir)
include $(CLEAR_VARS)
libdiag_includes:= \
$(LOCAL_PATH)/../include \
$(LOCAL_PATH)/../src \
LOCAL_C_INCLUDES:= $(libdiag_includes)
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/common/inc
LOCAL_SRC_FILES:= \
diag_klog.c \
commonSharedLibraries :=libdiag \
LOCAL_MODULE:= diag_klog
LOCAL_MODULE_TAGS := optional debug
LOCAL_SHARED_LIBRARIES := $(commonSharedLibraries)
LOCAL_MODULE_OWNER := qcom
include $(BUILD_EXECUTABLE)

23
feeds/wifi-ax/qca-diag/src/klog/Makefile.am Executable file
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AM_CFLAGS = -Wall \
-Wundef \
-Wstrict-prototypes \
-Wno-trigraphs \
-Werror
AM_CPPFLAGS = -D__packed__= \
-DIMAGE_APPS_PROC \
-DFEATURE_Q_SINGLE_LINK \
-DFEATURE_Q_NO_SELF_QPTR \
-DFEATURE_LINUX \
-DFEATURE_NATIVELINUX \
-DFEATURE_DSM_DUP_ITEMS \
-DFEATURE_LE_DIAG \
-I../src \
-I../include
bin_PROGRAMS = diag_klog
diag_klog_SOURCES = diag_klog.c
diag_klog_LDFLAGS = -lpthread
diag_klog_LDADD = ../src/libdiag.la

178
feeds/wifi-ax/qca-diag/src/klog/diag_klog.c Executable file
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@@ -0,0 +1,178 @@
// Copyright (c) 2007-2012 by Qualcomm Technologies, Inc. All Rights Reserved.
//Qualcomm Technologies Proprietary and Confidential.
/*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*
Test Application for Diag Interface
GENERAL DESCRIPTION
Contains main implementation of Diagnostic Services Test Application.
EXTERNALIZED FUNCTIONS
None
INITIALIZATION AND SEQUENCING REQUIREMENTS
Copyright (c) 2007-2012 Qualcomm Technologies, Inc.
All Rights Reserved.
Qualcomm Technologies Confidential and Proprietary
*====*====*====*====*====*====*====*====*====*====*====*====*====*====*====*/
/*===========================================================================
EDIT HISTORY FOR MODULE
This section contains comments describing changes made to the module.
Notice that changes are listed in reverse chronological order.
$Header:
when who what, where, why
-------- --- ----------------------------------------------------------
10/01/08 SJ Created
===========================================================================*/
#include "event.h"
#include "msg.h"
#include "log.h"
#include "diag_lsm.h"
#include "stdio.h"
#include "string.h"
#include "malloc.h"
#include <unistd.h>
#include <pthread.h>
#include <sys/klog.h>
#define NUM_BYTES 100
/* Global Data */
char buffer_temp[1000];
int buffer_temp_end = 0;
char prev_delimiter = '6';
/* static data */
pthread_t fd_testapp_thread_hdl; /* Diag task thread handle */
/*=============================================================================*/
/* Local Function declarations */
/*=============================================================================*/
void print_string(void);
void scan_buffer(char *buffer,int start);
typedef boolean (*ptr_Diag_LSM_Init)(byte* pIEnv);
typedef boolean (*ptr_Diag_LSM_DeInit)(void);
/*=============================================================================*/
/* Main Function. This initializes Diag_LSM, calls the tested APIs and exits. */
int main(void)
{
boolean bInit_Success = FALSE;
char *buffer;
int count_bytes;
buffer = (char*)malloc(sizeof(char) * NUM_BYTES);
if (!buffer) {
printf("TestApp_MultiThread: Could not allocate memory\n");
return -1;
}
bInit_Success = Diag_LSM_Init(NULL);
if(!bInit_Success)
{
printf("TestApp_MultiThread: Diag_LSM_Init() failed.");
free(buffer);
return -1;
}
printf("TestApp_MultiThread: Diag_LSM_Init succeeded.\n");
do
{
memset(buffer, 0, sizeof(char) * NUM_BYTES);
count_bytes = klogctl(2, buffer, NUM_BYTES);
scan_buffer(buffer, 0);
if(count_bytes < NUM_BYTES)
print_string();
} while(1);
/* Now find the DeInit function and call it. Clean up before exiting */
Diag_LSM_DeInit();
free(buffer);
return 0;
}
void scan_buffer(char *buffer, int start)
{
int i,j;
int found = 0;
for(i=start;i<NUM_BYTES;i++)
{
if(buffer[i] == '<' && (buffer[i+1] >= 49 || buffer[i+1] <= 56) && buffer[i+2] == '>')
{
found = 1;
for(j=start;j<i;j++)
buffer_temp[buffer_temp_end + j-start] = buffer[j];
print_string();
buffer_temp_end = 0;
start = i+3;
prev_delimiter = buffer[i+1];
break;
}
}
if(found == 1)
{
scan_buffer(buffer, start);
}
else
{
for(i = start; i < NUM_BYTES; i++)
{
buffer_temp[i-start] = buffer[i];
}
buffer_temp_end = NUM_BYTES - start;
}
}
void print_string(void)
{
switch(prev_delimiter)
{
case '0':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_HIGH,"%s",buffer_temp);
break;
case '1':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_HIGH,"%s",buffer_temp);
break;
case '2':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_HIGH,"%s",buffer_temp);
break;
case '3':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_MED,"%s",buffer_temp);
break;
case '4':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_MED,"%s",buffer_temp);
break;
case '5':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_LOW,"%s",buffer_temp);
break;
case '6':
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_LOW,"%s",buffer_temp);
break;
default:
MSG_SPRINTF_1(MSG_SSID_LK , MSG_LEGACY_LOW,"%s",buffer_temp);
}
memset(buffer_temp, 0, sizeof(char) * 1000);
}

27
feeds/wifi-ax/qca-diag/src/mdlog/Android.mk Executable file
View File

@@ -0,0 +1,27 @@
################################################################################
# @file pkgs/stringl/Android.mk
# @brief Makefile for building the string library on Android.
################################################################################
LOCAL_PATH := $(call my-dir)
include $(CLEAR_VARS)
libdiag_includes := \
$(LOCAL_PATH)/../include \
$(LOCAL_PATH)/../src
LOCAL_C_INCLUDES := $(libdiag_includes)
LOCAL_C_INCLUDES += $(TARGET_OUT_HEADERS)/common/inc
LOCAL_SRC_FILES := \
diag_mdlog.c
commonSharedLibraries :=libdiag liblog
LOCAL_MODULE := diag_mdlog
LOCAL_MODULE_TAGS := optional debug
LOCAL_SHARED_LIBRARIES := $(commonSharedLibraries)
LOCAL_MODULE_OWNER := qcom
include $(BUILD_EXECUTABLE)

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