Files
archived-wlan-cloud-analytics/src/APStats.cpp
2023-09-24 11:17:37 -07:00

630 lines
25 KiB
C++

//
// Created by stephane bourque on 2022-03-11.
//
#include "APStats.h"
#include "StorageService.h"
#include "WifiClientCache.h"
#include "dict_ssid.h"
#include "fmt/format.h"
#include "framework/utils.h"
namespace OpenWifi {
static std::string mac_filter(const std::string &m) {
std::string r;
for (const auto &c : m)
if (c != ':' && c != '-')
r += c;
return r;
}
template <typename T>
void GetJSON(const char *field, const nlohmann::json &doc, T &v, const T &def) {
if (doc.contains(field) && !doc[field].is_null()) {
v = doc[field].get<T>();
return;
}
v = def;
}
template <typename T>
void GetJSON(const char *field1, const char *field2, const nlohmann::json &doc, T &v,
const T &def) {
if (doc.contains(field1) && !doc[field1].is_null()) {
auto subDoc = doc[field1];
if (subDoc.contains(field2) && !subDoc[field2].is_null()) {
v = subDoc[field2].get<T>();
return;
}
}
v = def;
}
inline double safe_div(uint64_t a, uint64_t b) {
if (b == 0)
return 0.0;
return (double)a / (double)b;
}
inline double safe_pct(uint64_t a, uint64_t b) {
if (b == 0)
return 0.0;
return (100.0) * (double)a / (double)b;
}
inline bool find_ue(const std::string &station,
const std::vector<AnalyticsObjects::SSIDTimePoint> &tps,
AnalyticsObjects::UETimePoint &ue_tp) {
for (const auto &ssid : tps) {
for (const auto &association : ssid.associations) {
if (association.station == station) {
ue_tp = association;
return true;
}
}
}
return false;
}
template <typename X, typename M> double Average(X T, const std::vector<M> &Values) {
double result = 0.0;
if (!Values.empty()) {
double sum = 0.0;
for (const auto &v : Values) {
sum += (v.*T);
}
result = sum / (double)Values.size();
}
return result;
}
// This is used to detect a new association VS an existing one. This may happen when a device
// is connected, disconnects, and reconnects in between 2 samples.
static bool new_connection(const AnalyticsObjects::UETimePoint &Existing_UE,
const AnalyticsObjects::UETimePoint &new_association) {
if (new_association.tx_packets < Existing_UE.tx_packets ||
new_association.rx_packets < Existing_UE.rx_packets ||
new_association.tx_bytes < Existing_UE.tx_bytes ||
new_association.rx_bytes < Existing_UE.rx_bytes ||
new_association.tx_failed < Existing_UE.tx_failed) {
return true;
}
return false;
}
static int BandToInt(const std::string &band) {
if (band == "2G")
return 2;
if (band == "5G")
return 5;
if (band == "6G")
return 6;
return 2;
}
void AP::UpdateStats(const std::shared_ptr<nlohmann::json> &State) {
DI_.states++;
DI_.connected = true;
AnalyticsObjects::DeviceTimePoint DTP;
poco_trace(Logger(), fmt::format("{}: stats message.", DI_.serialNumber));
// find radios first to get associations.
try {
if (State->contains("unit")) {
auto unit = (*State)["unit"];
GetJSON("localtime", unit, DI_.lastState, (uint64_t)0);
GetJSON("uptime", unit, DI_.uptime, (uint64_t)0);
if (unit.contains("memory")) {
auto memory = unit["memory"];
uint64_t free_mem, total_mem;
GetJSON("free", memory, free_mem, (uint64_t)0);
GetJSON("total", memory, total_mem, (uint64_t)0);
if (total_mem) {
DI_.memory = ((double)(total_mem - free_mem) / (double)total_mem) * 100.0;
} else {
DI_.memory = 0.0;
}
}
}
DTP.timestamp = DI_.lastState;
std::map<uint, std::pair<uint, uint>> radio_map;
if (State->contains("radios") && (*State)["radios"].is_array()) {
auto radios = (*State)["radios"];
uint radio_index = 0;
for (const auto &radio : radios) {
if (radio.contains("channel")) {
AnalyticsObjects::RadioTimePoint RTP;
GetJSON("channel", radio, RTP.channel, (uint64_t)2);
if (radio.contains("band") && radio["band"].is_array()) {
auto BandArray = radio["band"];
RTP.band = BandToInt(BandArray[0]);
// std::cout << "BAND (radio): " << BandToInt(BandArray[0]) <<
// std::endl;
} else {
RTP.band = RTP.channel <= 16 ? 2 : 5;
}
radio_map[radio_index++] = std::make_pair(RTP.band, RTP.channel);
GetJSON("busy_ms", radio, RTP.busy_ms, (uint64_t)0);
GetJSON("receive_ms", radio, RTP.receive_ms, (uint64_t)0);
GetJSON("transmit_ms", radio, RTP.transmit_ms, (uint64_t)0);
GetJSON("active_ms", radio, RTP.active_ms, (uint64_t)0);
GetJSON("tx_power", radio, RTP.tx_power, (uint64_t)0);
GetJSON("active_ms", radio, RTP.active_ms, (uint64_t)0);
GetJSON("channel", radio, RTP.channel, (uint64_t)0);
GetJSON("temperature", radio, RTP.temperature, (int64_t)20);
if (radio.contains("channel_width") && !radio["channel_width"].is_null()) {
if (radio["channel_width"].is_string()) {
std::string C = radio["channel_width"];
RTP.channel_width = std::strtoull(C.c_str(), nullptr, 10);
} else if (radio["channel_width"].is_number_integer()) {
RTP.channel_width = radio["channel_width"];
} else {
RTP.channel_width = 20;
}
}
if (RTP.temperature == 0)
RTP.temperature = 20;
GetJSON("noise", radio, RTP.noise, (int64_t)-90);
if (RTP.noise == 0)
RTP.noise = -90;
DTP.radio_data.push_back(RTP);
}
}
}
// now that we know the radio bands, look for associations
auto interfaces = (*State)["interfaces"];
DI_.associations_2g = DI_.associations_5g = DI_.associations_6g = 0;
for (const auto &interface : interfaces) {
std::string InterfaceName = fmt::format(
"{}: {}", DI_.serialNumber,
interface.contains("name") ? to_string(interface["name"]) : "unknown");
if (interface.contains("counters")) {
auto counters = interface["counters"];
GetJSON("collisions", counters, DTP.ap_data.collisions, (uint64_t)0);
GetJSON("multicast", counters, DTP.ap_data.multicast, (uint64_t)0);
GetJSON("rx_bytes", counters, DTP.ap_data.rx_bytes, (uint64_t)0);
GetJSON("rx_dropped", counters, DTP.ap_data.rx_dropped, (uint64_t)0);
GetJSON("rx_errors", counters, DTP.ap_data.rx_errors, (uint64_t)0);
GetJSON("rx_packets", counters, DTP.ap_data.rx_packets, (uint64_t)0);
GetJSON("tx_bytes", counters, DTP.ap_data.tx_bytes, (uint64_t)0);
GetJSON("tx_dropped", counters, DTP.ap_data.tx_dropped, (uint64_t)0);
GetJSON("tx_errors", counters, DTP.ap_data.tx_errors, (uint64_t)0);
GetJSON("tx_packets", counters, DTP.ap_data.tx_packets, (uint64_t)0);
}
InterfaceClientEntryMap_t ICEM;
if (interface.contains("clients") && interface["clients"].is_array()) {
try {
auto Clients = interface["clients"];
for (const auto &client : Clients) {
if (client.contains("mac") && client["mac"].is_string()) {
InterfaceClientEntry E;
if (client.contains("ipv4_addresses") &&
client["ipv4_addresses"].is_array()) {
for (const auto &ip : client["ipv4_addresses"]) {
E.ipv4_addresses.push_back(ip);
}
}
if (client.contains("ipv6_addresses") &&
client["ipv6_addresses"].is_array()) {
for (const auto &ip : client["ipv6_addresses"]) {
E.ipv6_addresses.push_back(ip);
}
}
auto M = mac_filter(client["mac"]);
ICEM[M] = E;
}
}
} catch (...) {
std::cout << "Exception while parsing clients: " << InterfaceName
<< std::endl;
}
} else {
// std::cout <<"Interface: No clients: " << InterfaceName << std::endl;
}
if (interface.contains("ssids")) {
auto ssids = interface["ssids"];
for (const auto &ssid : ssids) {
AnalyticsObjects::SSIDTimePoint SSIDTP;
uint radio_location = 0;
SSIDTP.band = 2;
if (ssid.contains("band")) {
std::string Band = ssid["band"];
SSIDTP.band = BandToInt(Band);
// std::cout << "BAND (ssid): " << SSIDTP.band << std::endl;
auto radio = ssid["radio"];
if (radio.contains("$ref")) {
auto ref = radio["$ref"];
auto radio_parts = Poco::StringTokenizer(ref, "/");
if (radio_parts.count() == 3) {
radio_location =
std::strtol(radio_parts[2].c_str(), nullptr, 10);
if (radio_map.find(radio_location) != radio_map.end()) {
SSIDTP.channel = radio_map[radio_location].second;
}
}
}
} else if (ssid.contains("radio")) {
auto radio = ssid["radio"];
if (radio.contains("$ref")) {
auto ref = radio["$ref"];
auto radio_parts = Poco::StringTokenizer(ref, "/");
if (radio_parts.count() == 3) {
radio_location =
std::strtol(radio_parts[2].c_str(), nullptr, 10);
if (radio_map.find(radio_location) != radio_map.end()) {
SSIDTP.band = radio_map[radio_location].first;
SSIDTP.channel = radio_map[radio_location].second;
}
}
}
}
GetJSON("bssid", ssid, SSIDTP.bssid, std::string{""});
GetJSON("mode", ssid, SSIDTP.mode, std::string{""});
GetJSON("ssid", ssid, SSIDTP.ssid, std::string{""});
if (ssid.contains("associations") && ssid["associations"].is_array()) {
auto associations = ssid["associations"];
auto radio_it = radio_map.find(radio_location);
if (radio_it != radio_map.end()) {
auto the_radio = radio_it->second.first;
if (the_radio == 2)
DI_.associations_2g += associations.size();
else if (the_radio == 5)
DI_.associations_5g += associations.size();
else if (the_radio == 6)
DI_.associations_6g += associations.size();
}
for (const auto &association : associations) {
AnalyticsObjects::UETimePoint TP;
GetJSON("station", association, TP.station, std::string{});
GetJSON("rssi", association, TP.rssi, (int64_t)0);
GetJSON("tx_bytes", association, TP.tx_bytes, (uint64_t)0);
GetJSON("rx_bytes", association, TP.rx_bytes, (uint64_t)0);
GetJSON("tx_duration", association, TP.tx_duration, (uint64_t)0);
GetJSON("rx_packets", association, TP.rx_packets, (uint64_t)0);
GetJSON("tx_packets", association, TP.tx_packets, (uint64_t)0);
GetJSON("tx_retries", association, TP.tx_retries, (uint64_t)0);
GetJSON("tx_failed", association, TP.tx_failed, (uint64_t)0);
GetJSON("connected", association, TP.connected, (uint64_t)0);
GetJSON("inactive", association, TP.inactive, (uint64_t)0);
AnalyticsObjects::WifiClientHistory WFH;
WFH.station_id = mac_filter(TP.station);
WFH.bssid = mac_filter(SSIDTP.bssid);
WFH.ssid = SSIDTP.ssid;
WFH.rssi = TP.rssi;
GetJSON("rx_rate", "bitrate", association, WFH.rx_bitrate,
(uint32_t)0);
GetJSON("rx_rate", "chwidth", association, WFH.rx_chwidth,
(uint32_t)0);
GetJSON("rx_rate", "mcs", association, WFH.rx_mcs, (uint16_t)0);
GetJSON("rx_rate", "nss", association, WFH.rx_nss, (uint16_t)0);
GetJSON("rx_rate", "vht", association, WFH.rx_vht, false);
GetJSON("tx_rate", "bitrate", association, WFH.tx_bitrate,
(uint32_t)0);
GetJSON("tx_rate", "chwidth", association, WFH.tx_chwidth,
(uint32_t)0);
GetJSON("tx_rate", "mcs", association, WFH.tx_mcs, (uint16_t)0);
GetJSON("tx_rate", "nss", association, WFH.tx_nss, (uint16_t)0);
GetJSON("tx_rate", "vht", association, WFH.tx_vht, false);
GetJSON("rx_bytes", association, WFH.rx_bytes, (uint64_t)0);
GetJSON("tx_bytes", association, WFH.tx_bytes, (uint64_t)0);
GetJSON("rx_duration", association, WFH.rx_duration, (uint64_t)0);
GetJSON("tx_duration", association, WFH.tx_duration, (uint64_t)0);
GetJSON("rx_packets", association, WFH.rx_packets, (uint64_t)0);
GetJSON("tx_packets", association, WFH.tx_packets, (uint64_t)0);
// try to locate the IP addresses
auto ClientInfo = ICEM.find(WFH.station_id);
if (ClientInfo != end(ICEM)) {
if (!ClientInfo->second.ipv4_addresses.empty()) {
WFH.ipv4 = ClientInfo->second.ipv4_addresses[0];
}
if (!ClientInfo->second.ipv6_addresses.empty()) {
WFH.ipv6 = ClientInfo->second.ipv6_addresses[0];
}
// std::cout << __LINE__ << ": " << InterfaceName << " Mac
// Found: " << ICEM.size() << " entries. " << WFH.station_id <<
// std::endl;
} else {
// std::cout << __LINE__ << ": " << InterfaceName << " Mac NOT
// found: " << ICEM.size() << " entries. " << WFH.station_id <<
// std::endl;
}
for (const auto &rd : DTP.radio_data) {
if (rd.band == SSIDTP.band) {
WFH.channel_width = rd.channel_width;
WFH.noise = rd.noise;
WFH.tx_power = rd.tx_power;
WFH.channel = rd.channel;
WFH.active_ms = rd.active_ms;
WFH.busy_ms = rd.busy_ms;
WFH.receive_ms = rd.receive_ms;
break;
}
}
WFH.mode = SSIDTP.mode;
GetJSON("ack_signal", association, WFH.ack_signal, (int64_t)0);
GetJSON("ack_signal_avg", association, WFH.ack_signal_avg,
(int64_t)0);
GetJSON("connected", association, WFH.connected, (uint64_t)0);
GetJSON("inactive", association, WFH.inactive, (uint64_t)0);
GetJSON("tx_retries", association, WFH.tx_retries, (uint64_t)0);
WifiClientCache()->AddSerialNumber(venue_id_, WFH.station_id);
WFH.venue_id = venue_id_;
StorageService()->WifiClientHistoryDB().CreateRecord(WFH);
if (association.contains("tid_stats") &&
association["tid_stats"].is_array()) {
auto tid_stats = association["tid_stats"];
for (const auto &tid_stat : tid_stats) {
AnalyticsObjects::TIDstat_entry E;
GetJSON("rx_msdu", tid_stat, E.rx_msdu, (uint64_t)0);
GetJSON("tx_msdu", tid_stat, E.tx_msdu, (uint64_t)0);
GetJSON("tx_msdu_failed", tid_stat, E.tx_msdu_failed,
(uint64_t)0);
GetJSON("tx_msdu_retries", tid_stat, E.tx_msdu_retries,
(uint64_t)0);
TP.tidstats.push_back(E);
}
}
if (association.contains("tx_rate")) {
auto tx_rate = association["tx_rate"];
GetJSON("bitrate", tx_rate, TP.tx_rate.bitrate, (uint64_t)0);
GetJSON("mcs", tx_rate, TP.tx_rate.mcs, (uint64_t)0);
GetJSON("nss", tx_rate, TP.tx_rate.nss, (uint64_t)0);
GetJSON("chwidth", tx_rate, TP.tx_rate.chwidth, (uint64_t)0);
GetJSON("ht", tx_rate, TP.tx_rate.ht, false);
GetJSON("sgi", tx_rate, TP.tx_rate.sgi, false);
}
if (association.contains("rx_rate")) {
auto rx_rate = association["rx_rate"];
GetJSON("bitrate", rx_rate, TP.rx_rate.bitrate, (uint64_t)0);
GetJSON("mcs", rx_rate, TP.rx_rate.mcs, (uint64_t)0);
GetJSON("nss", rx_rate, TP.rx_rate.nss, (uint64_t)0);
GetJSON("chwidth", rx_rate, TP.rx_rate.chwidth, (uint64_t)0);
GetJSON("ht", rx_rate, TP.rx_rate.ht, false);
GetJSON("sgi", rx_rate, TP.rx_rate.sgi, false);
}
SSIDTP.associations.push_back(TP);
}
}
DTP.ssid_data.push_back(SSIDTP);
}
}
}
DTP.device_info = DI_;
} catch (...) {
poco_information(Logger(), fmt::format("{}: stats failed parsing.", DI_.serialNumber));
}
if (got_base) {
// calculate new point based on base, save new point, move DTP into base...
AnalyticsObjects::DeviceTimePoint db_DTP = DTP;
auto time_lapse = DTP.timestamp - tp_base_.timestamp;
if (time_lapse == 0)
time_lapse = 1;
db_DTP.ap_data.tx_bytes_delta = db_DTP.ap_data.tx_bytes - tp_base_.ap_data.tx_bytes;
db_DTP.ap_data.rx_bytes_delta = db_DTP.ap_data.rx_bytes - tp_base_.ap_data.rx_bytes;
db_DTP.ap_data.tx_packets_delta =
db_DTP.ap_data.tx_packets - tp_base_.ap_data.tx_packets;
db_DTP.ap_data.rx_packets_delta =
db_DTP.ap_data.rx_packets - tp_base_.ap_data.rx_packets;
db_DTP.ap_data.tx_dropped_delta =
db_DTP.ap_data.tx_dropped - tp_base_.ap_data.tx_dropped;
db_DTP.ap_data.rx_dropped_delta =
db_DTP.ap_data.rx_dropped - tp_base_.ap_data.rx_dropped;
db_DTP.ap_data.tx_errors_delta = db_DTP.ap_data.tx_errors - tp_base_.ap_data.tx_errors;
db_DTP.ap_data.rx_errors_delta = db_DTP.ap_data.rx_errors - tp_base_.ap_data.rx_errors;
db_DTP.ap_data.tx_bytes_bw = safe_div(db_DTP.ap_data.tx_bytes_delta, time_lapse);
db_DTP.ap_data.rx_bytes_bw = safe_div(db_DTP.ap_data.rx_bytes_delta, time_lapse);
db_DTP.ap_data.tx_packets_bw = safe_div(db_DTP.ap_data.tx_packets_delta, time_lapse);
db_DTP.ap_data.rx_packets_bw = safe_div(db_DTP.ap_data.rx_packets_delta, time_lapse);
db_DTP.ap_data.tx_dropped_pct =
safe_pct(db_DTP.ap_data.tx_dropped_delta, db_DTP.ap_data.tx_packets);
db_DTP.ap_data.rx_dropped_pct =
safe_pct(db_DTP.ap_data.rx_dropped_delta, db_DTP.ap_data.rx_packets);
db_DTP.ap_data.tx_errors_pct =
safe_pct(db_DTP.ap_data.tx_errors_delta, db_DTP.ap_data.tx_packets);
db_DTP.ap_data.rx_errors_pct =
safe_pct(db_DTP.ap_data.rx_errors_delta, db_DTP.ap_data.rx_packets);
for (auto &radio : db_DTP.radio_data) {
bool found = false;
for (const auto &base_radio : tp_base_.radio_data) {
if (radio.channel == base_radio.channel) {
found = true;
radio.active_pct =
safe_pct((radio.active_ms - base_radio.active_ms) / 1000, time_lapse);
radio.busy_pct =
safe_pct((radio.busy_ms - base_radio.busy_ms) / 1000, time_lapse);
radio.receive_pct =
safe_pct((radio.receive_ms - base_radio.receive_ms) / 1000, time_lapse);
radio.transmit_pct = safe_pct(
(radio.transmit_ms - base_radio.transmit_ms) / 1000, time_lapse);
}
}
if (!found) {
radio.active_pct = safe_pct(radio.active_ms / 1000, time_lapse);
radio.busy_pct = safe_pct(radio.busy_ms / 1000, time_lapse);
radio.receive_pct = safe_pct(radio.receive_ms / 1000, time_lapse);
radio.transmit_pct = safe_pct(radio.transmit_ms / 1000, time_lapse);
}
}
for (auto &ssid : db_DTP.ssid_data) {
for (auto &association : ssid.associations) {
AnalyticsObjects::UETimePoint ue_tp;
if (find_ue(association.station, tp_base_.ssid_data, ue_tp) &&
!new_connection(ue_tp, association)) {
association.tx_bytes_delta = association.tx_bytes - ue_tp.tx_bytes;
association.rx_bytes_delta = association.rx_bytes - ue_tp.rx_bytes;
association.tx_packets_delta = association.tx_packets - ue_tp.tx_packets;
association.rx_packets_delta = association.rx_packets - ue_tp.rx_packets;
association.tx_failed_delta = association.tx_failed - ue_tp.tx_failed;
association.tx_retries_delta = association.tx_retries - ue_tp.tx_retries;
association.tx_duration_delta = association.tx_duration - ue_tp.tx_duration;
} else {
association.tx_bytes_delta = association.tx_bytes;
association.rx_bytes_delta = association.rx_bytes;
association.tx_packets_delta = association.tx_packets;
association.rx_packets_delta = association.rx_packets;
association.tx_failed_delta = association.tx_failed;
association.tx_retries_delta = association.tx_retries;
association.tx_duration_delta = association.tx_duration;
}
association.tx_bytes_bw = safe_div(association.tx_bytes_delta, time_lapse);
association.rx_bytes_bw = safe_div(association.rx_bytes_delta, time_lapse);
association.tx_packets_bw = safe_div(association.tx_packets_delta, time_lapse);
association.rx_packets_bw = safe_div(association.rx_packets_delta, time_lapse);
association.tx_failed_pct =
safe_pct(association.tx_failed_delta, association.tx_packets);
association.tx_retries_pct =
safe_pct(association.tx_retries_delta, association.tx_packets);
association.tx_duration_pct =
safe_pct((association.tx_duration_delta) / 1000000, time_lapse);
ssid.tx_failed_pct.max =
std::max(ssid.tx_failed_pct.max, association.tx_failed_pct);
ssid.tx_failed_pct.min =
std::min(ssid.tx_failed_pct.min, association.tx_failed_pct);
ssid.tx_retries_pct.max =
std::max(ssid.tx_retries_pct.max, association.tx_retries_pct);
ssid.tx_retries_pct.min =
std::min(ssid.tx_retries_pct.min, association.tx_retries_pct);
ssid.tx_duration_pct.max =
std::max(ssid.tx_duration_pct.max, association.tx_duration_pct);
ssid.tx_duration_pct.min =
std::min(ssid.tx_duration_pct.min, association.tx_duration_pct);
ssid.tx_bytes_bw.max = std::max(ssid.tx_bytes_bw.max, association.tx_bytes_bw);
ssid.tx_bytes_bw.min = std::min(ssid.tx_bytes_bw.min, association.tx_bytes_bw);
ssid.rx_bytes_bw.max = std::max(ssid.rx_bytes_bw.max, association.rx_bytes_bw);
ssid.rx_bytes_bw.min = std::min(ssid.rx_bytes_bw.min, association.rx_bytes_bw);
ssid.tx_packets_bw.max =
std::max(ssid.tx_packets_bw.max, association.tx_packets_bw);
ssid.tx_packets_bw.min =
std::min(ssid.tx_packets_bw.min, association.tx_packets_bw);
ssid.rx_packets_bw.max =
std::max(ssid.rx_packets_bw.max, association.rx_packets_bw);
ssid.rx_packets_bw.min =
std::min(ssid.rx_packets_bw.min, association.rx_packets_bw);
}
ssid.tx_bytes_bw.avg =
Average(&AnalyticsObjects::UETimePoint::tx_bytes_bw, ssid.associations);
ssid.rx_bytes_bw.avg =
Average(&AnalyticsObjects::UETimePoint::rx_bytes_bw, ssid.associations);
ssid.tx_packets_bw.avg =
Average(&AnalyticsObjects::UETimePoint::tx_packets_bw, ssid.associations);
ssid.rx_packets_bw.avg =
Average(&AnalyticsObjects::UETimePoint::rx_packets_bw, ssid.associations);
ssid.tx_failed_pct.avg =
Average(&AnalyticsObjects::UETimePoint::tx_failed_pct, ssid.associations);
ssid.tx_retries_pct.avg =
Average(&AnalyticsObjects::UETimePoint::tx_retries_pct, ssid.associations);
ssid.tx_duration_pct.avg =
Average(&AnalyticsObjects::UETimePoint::tx_duration_pct, ssid.associations);
}
if (got_connection && got_health) {
db_DTP.id = MicroServiceCreateUUID();
db_DTP.boardId = boardId_;
db_DTP.serialNumber = db_DTP.device_info.serialNumber;
StorageService()->TimePointsDB().CreateRecord(db_DTP);
}
tp_base_ = DTP;
} else {
tp_base_ = DTP;
got_base = true;
}
}
void AP::UpdateConnection(const std::shared_ptr<nlohmann::json> &Connection) {
DI_.pings++;
DI_.lastContact = Utils::Now();
try {
if (Connection->contains("ping")) {
got_connection = true;
poco_trace(Logger(), fmt::format("{}: ping message.", DI_.serialNumber));
DI_.connected = true;
DI_.lastPing = Utils::Now();
auto ping = (*Connection)["ping"];
GetJSON("compatible", ping, DI_.deviceType, std::string{});
GetJSON("connectionIp", ping, DI_.connectionIp, std::string{});
GetJSON("locale", ping, DI_.locale, std::string{});
GetJSON("timestamp", ping, DI_.lastConnection, (uint64_t)Utils::Now());
if (ping.contains("firmware")) {
auto NewFirmware = ping["firmware"];
if (NewFirmware != DI_.lastFirmware) {
DI_.lastFirmware = NewFirmware;
DI_.lastFirmwareUpdate = Utils::Now();
}
}
} else if (Connection->contains("disconnection")) {
poco_trace(Logger(), fmt::format("{}: disconnection message.", DI_.serialNumber));
auto Disconnection = (*Connection)["disconnection"];
GetJSON("timestamp", Disconnection, DI_.lastDisconnection, (uint64_t)0);
got_base = got_health = got_connection = false;
DI_.connected = false;
} else if (Connection->contains("capabilities")) {
poco_trace(Logger(), fmt::format("{}: connection message.", DI_.serialNumber));
got_connection = true;
DI_.connected = true;
DI_.lastConnection = Utils::Now();
auto ConnectionData = (*Connection)["capabilities"];
if (ConnectionData.contains("firmware")) {
auto NewFirmware = ConnectionData["firmware"];
if (NewFirmware != DI_.lastFirmware) {
DI_.lastFirmware = NewFirmware;
DI_.lastFirmwareUpdate = Utils::Now();
}
}
GetJSON("connectionIp", ConnectionData, DI_.connectionIp, std::string{});
GetJSON("locale", ConnectionData, DI_.locale, std::string{});
}
} catch (...) {
poco_information(
Logger(), fmt::format("{}: error parsing connection message.", DI_.serialNumber));
}
}
void AP::UpdateHealth(const std::shared_ptr<nlohmann::json> &Health) {
try {
got_health = true;
GetJSON("timestamp", *Health, DI_.lastHealth, (uint64_t)0);
GetJSON("sanity", *Health, DI_.health, (uint64_t)0);
poco_trace(Logger(), fmt::format("{}: health message.", DI_.serialNumber));
} catch (...) {
poco_information(Logger(),
fmt::format("{}: error parsing health message.", DI_.serialNumber));
}
}
} // namespace OpenWifi