Make AP-AP TPC algorithm use tx power from statistics and fix TPC application to correct band (#76)

This commit is contained in:
Jun Woo Shin
2022-09-16 17:45:40 -04:00
committed by GitHub
parent cb92d4db0a
commit 27c36ff444
16 changed files with 231 additions and 200 deletions

View File

@@ -97,7 +97,7 @@ public class Modeler implements Runnable {
public Map<String, State> latestState = new ConcurrentHashMap<>();
/** List of radio info per device. */
public Map<String, JsonArray> latestDeviceStatus =
public Map<String, JsonArray> latestDeviceStatusRadios =
new ConcurrentHashMap<>();
/** List of capabilities per device. */
@@ -379,7 +379,7 @@ public class Modeler implements Runnable {
// Get old vs new radios info and store the new radios info
JsonArray newRadioList = config.getRadioConfigList();
Set<String> newRadioBandsSet = config.getRadioBandsSet(newRadioList);
JsonArray oldRadioList = dataModel.latestDeviceStatus
JsonArray oldRadioList = dataModel.latestDeviceStatusRadios
.put(serialNumber, newRadioList);
Set<String> oldRadioBandsSet = config.getRadioBandsSet(oldRadioList);
@@ -429,7 +429,7 @@ public class Modeler implements Runnable {
logger.debug("Removed some state entries from data model");
}
if (
dataModel.latestDeviceStatus.entrySet()
dataModel.latestDeviceStatusRadios.entrySet()
.removeIf(e -> !isRRMEnabled(e.getKey()))
) {
logger.debug("Removed some status entries from data model");

View File

@@ -454,9 +454,10 @@ public class DatabaseManager {
.map(o -> gson.fromJson(o, State.Interface.class))
.collect(Collectors.toList())
.toArray(new State.Interface[0]);
state.radios = new JsonObject[radios.lastKey() + 1];
state.radios = new State.Radio[radios.lastKey() + 1];
for (Map.Entry<Integer, JsonObject> entry : radios.entrySet()) {
state.radios[entry.getKey()] = entry.getValue();
State.Radio radio = new State.Radio();
state.radios[entry.getKey()] = radio;
}
return state;
}

View File

@@ -156,7 +156,7 @@ public abstract class ChannelOptimizer {
.removeIf(serialNumber -> !deviceConfigs.containsKey(serialNumber));
this.model.latestState.keySet()
.removeIf(serialNumber -> !deviceConfigs.containsKey(serialNumber));
this.model.latestDeviceStatus.keySet()
this.model.latestDeviceStatusRadios.keySet()
.removeIf(serialNumber -> !deviceConfigs.containsKey(serialNumber));
this.model.latestDeviceCapabilities.keySet()
.removeIf(serialNumber -> !deviceConfigs.containsKey(serialNumber));
@@ -378,15 +378,26 @@ public abstract class ChannelOptimizer {
radioIndex < state.radios.length;
radioIndex++
) {
int tempChannel = state.radios[radioIndex]
.get("channel")
.getAsInt();
int tempChannel = state.radios[radioIndex].channel;
if (UCentralUtils.isChannelInBand(tempChannel, band)) {
currentChannel = tempChannel;
currentChannelWidth = state.radios[radioIndex]
.get("channel_width")
.getAsInt();
break;
// treat as two separate 80MHz channel and only assign to one
// TODO: support 80p80 properly
Integer parsedChannelWidth = UCentralUtils
.parseChannelWidth(
state.radios[radioIndex].channel_width,
true
);
if (parsedChannelWidth != null) {
currentChannelWidth = parsedChannelWidth;
break;
}
logger.error(
"Invalid channel width {}",
state.radios[radioIndex].channel_width
);
continue;
}
}
return new int[] { currentChannel, currentChannelWidth };

View File

@@ -331,11 +331,11 @@ public class LeastUsedChannelOptimizer extends ChannelOptimizer {
public Map<String, Map<String, Integer>> computeChannelMap() {
Map<String, Map<String, Integer>> channelMap = new TreeMap<>();
Map<String, List<String>> bandsMap = UCentralUtils
.getBandsMap(model.latestDeviceStatus);
.getBandsMap(model.latestDeviceStatusRadios);
Map<String, Map<String, List<Integer>>> deviceAvailableChannels =
UCentralUtils.getDeviceAvailableChannels(
model.latestDeviceStatus,
model.latestDeviceStatusRadios,
model.latestDeviceCapabilities,
AVAILABLE_CHANNELS_BAND
);

View File

@@ -119,11 +119,11 @@ public class RandomChannelInitializer extends ChannelOptimizer {
public Map<String, Map<String, Integer>> computeChannelMap() {
Map<String, Map<String, Integer>> channelMap = new TreeMap<>();
Map<String, List<String>> bandsMap =
UCentralUtils.getBandsMap(model.latestDeviceStatus);
UCentralUtils.getBandsMap(model.latestDeviceStatusRadios);
Map<String, Map<String, List<Integer>>> deviceAvailableChannels =
UCentralUtils.getDeviceAvailableChannels(
model.latestDeviceStatus,
model.latestDeviceStatusRadios,
model.latestDeviceCapabilities,
AVAILABLE_CHANNELS_BAND
);

View File

@@ -14,7 +14,6 @@ import java.util.HashMap;
import java.util.HashSet;
import java.util.List;
import java.util.Map;
import java.util.Optional;
import java.util.Set;
import java.util.TreeMap;
@@ -26,9 +25,6 @@ import com.facebook.openwifirrm.modules.Modeler.DataModel;
import com.facebook.openwifirrm.ucentral.UCentralUtils;
import com.facebook.openwifirrm.ucentral.WifiScanEntry;
import com.facebook.openwifirrm.ucentral.models.State;
import com.google.gson.JsonArray;
import com.google.gson.JsonElement;
import com.google.gson.JsonObject;
/**
* Measurement-based AP-AP TPC algorithm.
@@ -178,32 +174,6 @@ public class MeasurementBasedApApTPC extends TPC {
return managedBSSIDs;
}
/**
* Get the current band radio tx power (the first one found) for an AP using
* the latest device status.
*
* @param latestDeviceStatus JsonArray containing radio config for the AP
* @param band band (e.g., "2G")
* @return an Optional containing the tx power if one exists, or else an
* empty Optional
*/
protected static Optional<Integer> getCurrentTxPower(
JsonArray latestDeviceStatus,
String band
) {
for (JsonElement e : latestDeviceStatus) {
if (!e.isJsonObject()) {
continue;
}
JsonObject radioObject = e.getAsJsonObject();
String radioBand = radioObject.get("band").getAsString();
if (radioBand.equals(band) && radioObject.has("tx-power")) {
return Optional.of(radioObject.get("tx-power").getAsInt());
}
}
return Optional.empty();
}
/**
* Get a map from BSSID to the received signal strength at neighboring APs (RSSI).
* List of RSSIs are returned in sorted, ascending order.
@@ -340,7 +310,6 @@ public class MeasurementBasedApApTPC extends TPC {
Map<String, List<Integer>> bssidToRssiValues =
buildRssiMap(managedBSSIDs, model.latestWifiScans, band);
logger.debug("Starting TPC for the {} band", band);
Map<String, JsonArray> allStatuses = model.latestDeviceStatus;
for (String serialNumber : serialNumbers) {
State state = model.latestState.get(serialNumber);
if (
@@ -370,40 +339,68 @@ public class MeasurementBasedApApTPC extends TPC {
);
continue;
}
JsonArray radioStatuses =
allStatuses.get(serialNumber).getAsJsonArray();
Optional<Integer> possibleCurrentTxPower = getCurrentTxPower(
radioStatuses,
band
);
if (possibleCurrentTxPower.isEmpty()) {
// this AP is not on the band of interest
continue;
// An AP can have multiple interfaces, optimize for all of them
for (State.Interface iface : state.interfaces) {
if (iface.ssids == null) {
continue;
}
for (State.Interface.SSID ssid : iface.ssids) {
Integer idx = UCentralUtils.parseReferenceIndex(
ssid.radio.get("$ref").getAsString()
);
if (idx == null) {
logger.error(
"Unable to get radio for {}, invalid radio ref {}",
serialNumber,
ssid.radio.get("$ref").getAsString()
);
continue;
}
State.Radio radio = state.radios[idx];
// this specific SSID is not on the band of interest
if (
!UCentralUtils.isChannelInBand(radio.channel, band)
) {
continue;
}
int currentTxPower = radio.tx_power;
String bssid = ssid.bssid;
List<Integer> rssiValues = bssidToRssiValues.get(bssid);
logger
.debug(
"Device <{}> : Interface <{}> : Channel <{}> : BSSID <{}>",
serialNumber,
iface.name,
channel,
bssid
);
for (int rssi : rssiValues) {
logger.debug(" Neighbor received RSSI: {}", rssi);
}
List<Integer> txPowerChoices = updateTxPowerChoices(
band,
serialNumber,
DEFAULT_TX_POWER_CHOICES
);
int newTxPower = computeTxPower(
serialNumber,
currentTxPower,
rssiValues,
coverageThreshold,
nthSmallestRssi,
txPowerChoices
);
logger.debug(" Old tx_power: {}", currentTxPower);
logger.debug(" New tx_power: {}", newTxPower);
txPowerMap
.computeIfAbsent(serialNumber, k -> new TreeMap<>())
.put(band, newTxPower);
}
}
int currentTxPower = possibleCurrentTxPower.get();
String bssid = state.interfaces[0].ssids[0].bssid;
List<Integer> rssiValues = bssidToRssiValues.get(bssid);
logger.debug("Device <{}> : BSSID <{}>", serialNumber, bssid);
for (int rssi : rssiValues) {
logger.debug(" Neighbor received RSSI: {}", rssi);
}
List<Integer> txPowerChoices = updateTxPowerChoices(
band,
serialNumber,
DEFAULT_TX_POWER_CHOICES
);
int newTxPower = computeTxPower(
serialNumber,
currentTxPower,
rssiValues,
coverageThreshold,
nthSmallestRssi,
txPowerChoices
);
logger.debug(" Old tx_power: {}", currentTxPower);
logger.debug(" New tx_power: {}", newTxPower);
txPowerMap.computeIfAbsent(serialNumber, k -> new TreeMap<>())
.put(band, newTxPower);
}
}

View File

@@ -22,7 +22,6 @@ import org.slf4j.LoggerFactory;
import com.facebook.openwifirrm.DeviceDataManager;
import com.facebook.openwifirrm.modules.Modeler.DataModel;
import com.facebook.openwifirrm.ucentral.models.State;
import com.google.gson.JsonObject;
/**
* Measurement-based AP-client algorithm.
@@ -42,6 +41,9 @@ public class MeasurementBasedApClientTPC extends TPC {
/** Default tx power. */
public static final int DEFAULT_TX_POWER = 10;
/** Default channel width in HMz */
public static final int DEFAULT_CHANNEL_WIDTH = 20;
/** Mapping of MCS index to required SNR (dB) in 802.11ac. */
private static final List<Double> MCS_TO_SNR = Collections.unmodifiableList(
Arrays.asList(
@@ -154,19 +156,16 @@ public class MeasurementBasedApClientTPC extends TPC {
private int computeTxPowerForRadio(
String serialNumber,
State state,
JsonObject radio,
State.Radio radio,
List<Integer> txPowerChoices
) {
// Find current tx power and bandwidth
int currentTxPower =
radio.has("tx_power") && !radio.get("tx_power").isJsonNull()
? radio.get("tx_power").getAsInt()
: 0;
int channelWidth =
1_000_000 /* convert MHz to Hz */ * (radio.has("channel_width") &&
!radio.get("channel_width").isJsonNull()
? radio.get("channel_width").getAsInt()
: 20);
int currentTxPower = radio.tx_power;
// treat as one 160MHz channel vs two 80MHz channels
Integer channelWidthMHz =
UCentralUtils.parseChannelWidth(radio.channel_width, false);
int channelWidth = (channelWidthMHz != null
? channelWidthMHz : DEFAULT_CHANNEL_WIDTH) * 1_000_000; // convert MHz to HZ
Collections.sort(txPowerChoices);
int minTxPower = txPowerChoices.get(0);
int maxTxPower = txPowerChoices.get(txPowerChoices.size() - 1);
@@ -303,17 +302,10 @@ public class MeasurementBasedApClientTPC extends TPC {
);
continue;
}
Map<String, Integer> radioMap = new TreeMap<>();
for (JsonObject radio : state.radios) {
Integer currentChannel =
radio.has("channel") && !radio.get("channel").isJsonNull()
? radio.get("channel").getAsInt()
: null;
if (currentChannel == null) {
continue;
}
for (State.Radio radio : state.radios) {
int currentChannel = radio.channel;
String band = UCentralUtils.getBandFromChannel(currentChannel);
if (band == null) {
continue;

View File

@@ -24,7 +24,6 @@ import com.facebook.openwifirrm.DeviceDataManager;
import com.facebook.openwifirrm.modules.ConfigManager;
import com.facebook.openwifirrm.modules.Modeler.DataModel;
import com.facebook.openwifirrm.ucentral.models.State;
import com.google.gson.JsonObject;
import org.slf4j.Logger;
import org.slf4j.LoggerFactory;
@@ -75,7 +74,7 @@ public abstract class TPC {
this.model.latestState.keySet()
.removeIf(serialNumber -> !deviceConfigs.containsKey(serialNumber)
);
this.model.latestDeviceStatus.keySet()
this.model.latestDeviceStatusRadios.keySet()
.removeIf(serialNumber -> !deviceConfigs.containsKey(serialNumber)
);
this.model.latestDeviceCapabilities.keySet()
@@ -203,12 +202,9 @@ public abstract class TPC {
continue;
}
for (JsonObject radio : state.radios) {
Integer currentChannel =
radio.has("channel") && !radio.get("channel").isJsonNull()
? radio.get("channel").getAsInt()
: null;
if (currentChannel == null) {
for (State.Radio radio : state.radios) {
Integer currentChannel = radio.channel;
if (currentChannel == 0) {
continue;
}
apsPerChannel

View File

@@ -384,4 +384,52 @@ public class UCentralUtils {
}
return null;
}
/**
* Tries to parse channel width, if it encounters an error it will return null.
* It can handle 80p80 in two ways. First it can just treat it as 160. Second,
* it can just apply to the first 80 channel and ignore the second. This is
* controlled by treatSeparate.
*
* @param channelWidthStr the channel width
* @param treatSeparate treats each band separately
* @return channel width in MHz
*/
public static Integer parseChannelWidth(
String channelWidthStr,
boolean treatSeparate
) {
// 80p80 is the only case where it can't be parsed into an integer
if (channelWidthStr.equals("80p80")) {
return treatSeparate ? 80 : 160;
}
try {
return Integer.parseInt(channelWidthStr);
} catch (NumberFormatException e) {
return null;
}
}
/**
* Tries to parse the index from the reference string in the JSON returned from
* other services. Note that this only returns the index, the caller is
* responsible for making sure that the correct field is passed in and the
* index is used in the correct fields. If there's an error parsing, it will
* return null.
*
* @param reference The reference string, keyed under "$ref"
* @return the index of the reference or null if an error occurred.
*/
public static Integer parseReferenceIndex(String reference) {
try {
return Integer.parseInt(
reference,
reference.lastIndexOf("/") + 1,
reference.length(),
10
);
} catch (NumberFormatException e) {
return null;
}
}
}

View File

@@ -112,8 +112,21 @@ public class State {
public Unit unit;
public static class Radio {
public long active_ms;
public long busy_ms;
public int channel;
public String channel_width;
public long noise;
public String phy;
public long receive_ms;
public long transmit_ms;
public int tx_power;
}
public Radio[] radios;
// TODO
public JsonObject[] radios;
@SerializedName("link-state") public JsonObject linkState;
public JsonObject gps;
public JsonObject poe;

View File

@@ -397,23 +397,15 @@ public class TestUtils {
}
/** Create an element of {@link State#radios}. */
private static JsonObject createStateRadio() {
// @formatter:off
return gson.fromJson(
String.format(
" {\n" +
" \"active_ms\": 564328,\n" +
" \"busy_ms\": 36998,\n" +
" \"noise\": 4294967193,\n" +
" \"phy\": \"platform/soc/c000000.wifi\",\n" +
" \"receive_ms\": 28,\n" +
" \"temperature\": 45,\n" +
" \"transmit_ms\": 4893\n" +
" }\n"
),
JsonObject.class
);
// @formatter:on
private static State.Radio createStateRadio() {
State.Radio radio = new State.Radio();
radio.active_ms = 564328;
radio.busy_ms = 36998;
radio.noise = 4294967193L;
radio.phy = "platform/soc/c000000.wifi";
radio.receive_ms = 28;
radio.transmit_ms = 4893;
return radio;
}
/** Create a {@code State.Unit}. */
@@ -477,12 +469,12 @@ public class TestUtils {
state.interfaces[index] = createUpStateInterface(index);
}
state.interfaces[numRadios] = createDownStateInterface(numRadios);
state.radios = new JsonObject[numRadios];
state.radios = new State.Radio[numRadios];
for (int i = 0; i < numRadios; i++) {
state.radios[i] = createStateRadio();
state.radios[i].addProperty("channel", channels[i]);
state.radios[i].addProperty("channel_width", channelWidths[i]);
state.radios[i].addProperty("tx_power", txPowers[i]);
state.radios[i].channel = channels[i];
state.radios[i].channel_width = Integer.toString(channelWidths[i]);
state.radios[i].tx_power = txPowers[i];
state.interfaces[i].ssids[0].bssid = bssids[i];
state.interfaces[i].ssids[0].associations =
new State.Interface.SSID.Association[clientRssis[i].length];

View File

@@ -51,7 +51,7 @@ public class LeastUsedChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (48)
int aExpectedChannel = 48;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -73,7 +73,7 @@ public class LeastUsedChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int bExpectedChannel = channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 40)
);
@@ -94,7 +94,7 @@ public class LeastUsedChannelOptimizerTest {
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int cExpectedChannel = channelsC.removeFirst();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);
@@ -138,7 +138,7 @@ public class LeastUsedChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (1)
int aExpectedChannel = 1;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -160,7 +160,7 @@ public class LeastUsedChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int bExpectedChannel = channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 6)
);
@@ -178,7 +178,7 @@ public class LeastUsedChannelOptimizerTest {
// C -> Assigned to only free prioritized channel (1)
int cExpectedChannel = 1;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 6)
);
@@ -231,7 +231,7 @@ public class LeastUsedChannelOptimizerTest {
// A, B, C should just be assigned to the same userChannel
int aExpectedChannel = 48;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -252,7 +252,7 @@ public class LeastUsedChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 40)
);
@@ -272,7 +272,7 @@ public class LeastUsedChannelOptimizerTest {
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.removeFirst();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);
@@ -324,7 +324,7 @@ public class LeastUsedChannelOptimizerTest {
// A -> No APs on current channel and the current channel is in allowedChannels,
// so stay on it (48)
int aExpectedChannel = 48;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -347,7 +347,7 @@ public class LeastUsedChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 40)
);
@@ -368,7 +368,7 @@ public class LeastUsedChannelOptimizerTest {
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.removeFirst();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);
@@ -414,7 +414,7 @@ public class LeastUsedChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (48)
int aExpectedChannel = 157;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -438,7 +438,7 @@ public class LeastUsedChannelOptimizerTest {
channelsB.addAll(Arrays.asList(40, 48, 153, 161));
channelsB.addAll(Arrays.asList(40, 48, 153, 161));
int bExpectedChannel = channelsB.removeLast() - 4; // upper extension
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 40)
);
@@ -459,7 +459,7 @@ public class LeastUsedChannelOptimizerTest {
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int cExpectedChannel = channelsC.removeFirst();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);
@@ -479,7 +479,7 @@ public class LeastUsedChannelOptimizerTest {
LinkedList<Integer> channelsD = new LinkedList<>();
channelsD.addAll(Arrays.asList(36, 44, 149, 157));
int dExpectedChannel = channelsD.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceD,
TestUtils.createDeviceStatus(band, 40)
);
@@ -532,7 +532,7 @@ public class LeastUsedChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (36)
int aExpectedChannel = 36;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -554,7 +554,7 @@ public class LeastUsedChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(Arrays.asList(40, 48, 149));
int bExpectedChannel = channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 36)
);
@@ -575,7 +575,7 @@ public class LeastUsedChannelOptimizerTest {
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int cExpectedChannel = channelsC.removeFirst();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);
@@ -597,7 +597,7 @@ public class LeastUsedChannelOptimizerTest {
channelsD.addAll(Arrays.asList(40, 48, 153, 161));
channelsD.addAll(Arrays.asList(40, 48, 153, 161));
int dExpectedChannel = channelsD.removeLast() - 12;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceD,
TestUtils.createDeviceStatus(band, 36)
);
@@ -622,7 +622,7 @@ public class LeastUsedChannelOptimizerTest {
.put(UCentralConstants.BAND_5G, Arrays.asList(48, 165));
deviceDataManager.setDeviceApConfig(deviceE, apConfig);
int eExpectedChannel = 36;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceE,
TestUtils.createDeviceStatus(band, eExpectedChannel)
);
@@ -668,7 +668,7 @@ public class LeastUsedChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (48)
int aExpectedChannel = 48;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -689,7 +689,7 @@ public class LeastUsedChannelOptimizerTest {
// B -> Same setting as A, but the scan results are bandwidth aware
// Assign to only free channel (165)
int bExpectedChannel = 165;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 48)
);
@@ -721,7 +721,7 @@ public class LeastUsedChannelOptimizerTest {
channelsC1.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
channelsC2.addAll(Arrays.asList(36, 157, 165));
int cExpectedChannel = channelsC1.removeFirst();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);

View File

@@ -54,11 +54,11 @@ public class RandomChannelInitializerTest {
deviceB,
TestUtils.createState(11, channelWidth, deviceBBssid)
);
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, 7)
);
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 8)
);
@@ -99,11 +99,11 @@ public class RandomChannelInitializerTest {
deviceB,
TestUtils.createState(11, channelWidth, deviceBBssid)
);
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, 7)
);
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 8)
);

View File

@@ -52,7 +52,7 @@ public class UnmanagedApAwareChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (48)
int aExpectedChannel = 48;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -76,7 +76,7 @@ public class UnmanagedApAwareChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int bExpectedChannel = channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 40)
);
@@ -110,7 +110,7 @@ public class UnmanagedApAwareChannelOptimizerTest {
)
);
int cExpectedChannel = 48;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 149)
);
@@ -156,7 +156,7 @@ public class UnmanagedApAwareChannelOptimizerTest {
// A -> No APs on current channel, so stay on it (1)
int aExpectedChannel = 1;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceA,
TestUtils.createDeviceStatus(band, aExpectedChannel)
);
@@ -178,7 +178,7 @@ public class UnmanagedApAwareChannelOptimizerTest {
LinkedList<Integer> channelsB = new LinkedList<>();
channelsB.addAll(ChannelOptimizer.AVAILABLE_CHANNELS_BAND.get(band));
int bExpectedChannel = channelsB.removeLast();
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceB,
TestUtils.createDeviceStatus(band, 6)
);
@@ -196,7 +196,7 @@ public class UnmanagedApAwareChannelOptimizerTest {
// C -> Assigned to only free prioritized channel (1)
int cExpectedChannel = 1;
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
deviceC,
TestUtils.createDeviceStatus(band, 6)
);

View File

@@ -128,7 +128,7 @@ public class LocationBasedOptimalTPCTest {
DataModel dataModel = new DataModel();
for (String device : Arrays.asList(deviceA, deviceB, deviceC)) {
dataModel.latestDeviceStatus.put(
dataModel.latestDeviceStatusRadios.put(
device,
TestUtils.createDeviceStatus(UCentralConstants.BANDS)
);
@@ -195,7 +195,7 @@ public class LocationBasedOptimalTPCTest {
DataModel dataModel2 = new DataModel();
for (String device : Arrays.asList(deviceA, deviceB)) {
dataModel2.latestDeviceStatus.put(
dataModel2.latestDeviceStatusRadios.put(
device,
TestUtils.createDeviceStatus(UCentralConstants.BANDS)
);
@@ -213,7 +213,7 @@ public class LocationBasedOptimalTPCTest {
)
);
}
dataModel2.latestDeviceStatus
dataModel2.latestDeviceStatusRadios
.put(
deviceC,
TestUtils.createDeviceStatus(
@@ -304,7 +304,7 @@ public class LocationBasedOptimalTPCTest {
DataModel dataModel2 = new DataModel();
for (String device : Arrays.asList(deviceA, deviceB, deviceC)) {
dataModel2.latestDeviceStatus.put(
dataModel2.latestDeviceStatusRadios.put(
device,
TestUtils.createDeviceStatus(UCentralConstants.BANDS)
);
@@ -363,7 +363,7 @@ public class LocationBasedOptimalTPCTest {
DataModel dataModel3 = new DataModel();
for (String device : Arrays.asList(deviceA, deviceB, deviceC)) {
dataModel3.latestDeviceStatus.put(
dataModel3.latestDeviceStatusRadios.put(
device,
TestUtils.createDeviceStatus(UCentralConstants.BANDS)
);
@@ -412,7 +412,7 @@ public class LocationBasedOptimalTPCTest {
DataModel dataModel4 = new DataModel();
for (String device : Arrays.asList(deviceA, deviceB, deviceC)) {
dataModel4.latestDeviceStatus.put(
dataModel4.latestDeviceStatusRadios.put(
device,
TestUtils.createDeviceStatus(UCentralConstants.BANDS)
);

View File

@@ -34,7 +34,6 @@ import com.facebook.openwifirrm.ucentral.UCentralConstants;
import com.facebook.openwifirrm.ucentral.UCentralUtils;
import com.facebook.openwifirrm.ucentral.WifiScanEntry;
import com.facebook.openwifirrm.ucentral.models.State;
import com.google.gson.JsonArray;
@TestMethodOrder(OrderAnnotation.class)
public class MeasurementBasedApApTPCTest {
@@ -122,17 +121,17 @@ public class MeasurementBasedApApTPCTest {
model.latestState.put(DEVICE_B, stateB);
model.latestState.put(DEVICE_C, stateC);
model.latestDeviceStatus.put(
model.latestDeviceStatusRadios.put(
DEVICE_A,
TestUtils
.createDeviceStatusDualBand(1, MAX_TX_POWER, 36, MAX_TX_POWER)
);
model.latestDeviceStatus.put(
model.latestDeviceStatusRadios.put(
DEVICE_B,
TestUtils
.createDeviceStatusDualBand(1, MAX_TX_POWER, 36, MAX_TX_POWER)
);
model.latestDeviceStatus.put(
model.latestDeviceStatusRadios.put(
DEVICE_C,
TestUtils
.createDeviceStatusDualBand(1, MAX_TX_POWER, 36, MAX_TX_POWER)
@@ -298,25 +297,6 @@ public class MeasurementBasedApApTPCTest {
@Test
@Order(2)
void testGetCurrentTxPower() throws Exception {
final int expectedTxPower = 29;
DataModel model = new DataModel();
model.latestDeviceStatus.put(
DEVICE_A,
TestUtils.createDeviceStatusDualBand(1, 5, 36, expectedTxPower)
);
JsonArray radioStatuses =
model.latestDeviceStatus.get(DEVICE_A).getAsJsonArray();
int txPower = MeasurementBasedApApTPC
.getCurrentTxPower(radioStatuses, UCentralConstants.BAND_5G)
.get();
assertEquals(expectedTxPower, txPower);
}
@Test
@Order(3)
void testBuildRssiMap() throws Exception {
// This example includes three APs, and one AP that is unmanaged
Set<String> bssidSet = Set.of(BSSID_A, BSSID_B, BSSID_C);
@@ -338,7 +318,7 @@ public class MeasurementBasedApApTPCTest {
}
@Test
@Order(4)
@Order(3)
void testComputeTxPower() throws Exception {
// Test examples here taken from algorithm design doc from @pohanhf
final String serialNumber = "testSerial";
@@ -513,12 +493,13 @@ public class MeasurementBasedApApTPCTest {
)
);
// make device C not operate in the 5G band instead of dual band
dataModel.latestDeviceStatus.put(
dataModel.latestState.put(
DEVICE_C,
TestUtils.createDeviceStatus(
UCentralConstants.BAND_2G,
TestUtils.createState(
1,
MAX_TX_POWER
DEFAULT_CHANNEL_WIDTH,
MAX_TX_POWER,
BSSID_C
)
);
DeviceDataManager deviceDataManager = createDeviceDataManager();