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task_syscontrol.cpp
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task_syscontrol.cpp
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#include "tasks/task_syscontrol.h"
#define TASK_SYS_CONTROL_PRIO 6
// globals
uint32_t TaskSysControlHWmark = 0;
DNSServer dnsServer;
bool SHT3x_original = false;
bool SHT3x_alternative = false;
bool runscan = false;
bool dontSaveConfig = false;
bool saveSystemConfigflag = false;
bool saveLogConfigflag = false;
bool saveWifiConfigflag = false;
bool resetWifiConfigflag = false;
bool resetSystemConfigflag = false;
bool clearQueue = false;
bool shouldReboot = false;
int8_t ithoInitResult = 0;
bool IthoInit = false;
bool wifiModeAP = false;
bool wifiSTAshouldConnect = false;
bool wifiSTAconnected = false;
bool wifiSTAconnecting = false;
bool reset_sht_sensor = false;
bool restest = false;
bool i2c_safe_guard_log = true;
// locals
StaticTask_t xTaskSysControlBuffer;
StackType_t xTaskSysControlStack[STACK_SIZE_MEDIUM];
TaskHandle_t xTaskSysControlHandle = NULL;
unsigned long lastI2CinitRequest = 0;
bool ithoInitResultLogEntry = true;
Ticker scan;
unsigned long lastWIFIReconnectAttempt = 0;
unsigned long APmodeTimeout = 0;
unsigned long wifiLedUpdate = 0;
unsigned long SHT3x_readout = 0;
unsigned long query2401tim = 0;
unsigned long query4210tim = 0;
unsigned long mqttUpdatetim = 0;
unsigned long lastVersionCheck = 0;
bool i2c_init_functions_done = false;
bool joinSend = false;
SHTSensor sht_org(SHTSensor::SHT3X);
SHTSensor sht_alt(SHTSensor::SHT3X_ALT);
void startTaskSysControl()
{
xTaskSysControlHandle = xTaskCreateStaticPinnedToCore(
TaskSysControl,
"TaskSysControl",
STACK_SIZE_MEDIUM,
(void *)1,
TASK_SYS_CONTROL_PRIO,
xTaskSysControlStack,
&xTaskSysControlBuffer,
CONFIG_ARDUINO_RUNNING_CORE);
}
void work_i2c_queue()
{
if (!i2c_cmd_queue.empty())
{
if (i2c_safe_guard.i2c_safe_guard_enabled == true && i2c_safe_guard.sniffer_enabled == false)
{
// block 500ms before expected temp readout and 500ms after expected temp readout
unsigned long cur_time = millis();
if (i2c_safe_guard.start_close_time < cur_time && cur_time < i2c_safe_guard.end_close_time)
{
if (i2c_safe_guard_log)
{
i2c_safe_guard_log = false;
// D_LOG("i2c_safe_guard blocked queue: start:%d > cur:%d < end:%d", i2c_safe_guard.start_close_time, cur_time, i2c_safe_guard.end_close_time);
}
return;
}
}
if (!i2c_safe_guard_log)
{
// D_LOG("i2c_safe_guard unblocked queue");
i2c_safe_guard_log = true;
}
i2c_cmd_queue.front()(); //()() is there for a reason!
i2c_cmd_queue.pop_front();
}
}
void TaskSysControl(void *pvParameters)
{
configASSERT((uint32_t)pvParameters == 1UL);
Ticker TaskTimeout;
Ticker queueUpdater;
delay(2000);
wifiInit();
delay(2000);
syslog.appName(logConfig.logref);
syslog.deviceHostname(hostName());
syslog.server(logConfig.logserver, logConfig.logport);
syslog.defaultPriority(LOG_KERN);
init_vRemote();
initSensor();
startTaskCC1101();
esp_task_wdt_add(NULL);
queueUpdater.attach_ms(QUEUE_UPDATE_MS, update_queue);
for (;;)
{
yield();
esp_task_wdt_reset();
TaskTimeout.once_ms(35000, []()
{ W_LOG("Warning: Task SysControl timed out!"); });
execSystemControlTasks();
if (shouldReboot)
{
TaskTimeout.detach();
N_LOG("Reboot requested");
if (!dontSaveConfig)
{
saveSystemConfig("flash");
}
delay(1000);
ACTIVE_FS.end();
esp_restart();
}
TaskSysControlHWmark = uxTaskGetStackHighWaterMark(NULL);
vTaskDelay(25 / portTICK_PERIOD_MS);
}
// else delete task
vTaskDelete(NULL);
}
void execSystemControlTasks()
{
work_i2c_queue();
if (IthoInit && millis() > 250)
{
IthoInit = ithoInitCheck();
}
if (!i2c_init_functions_done)
{
init_i2c_functions();
}
// request itho counter status every systemConfig.itho_counter_updatefreq sec.
else if (millis() - query4210tim >= systemConfig.itho_counter_updatefreq * 1000UL)
{
query4210tim = millis();
if (systemConfig.itho_4210 == 1)
{
i2c_queue_add_cmd([]()
{ sendQueryCounters(false); });
i2c_queue_add_cmd([]()
{ updateMQTTihtoStatus = true; });
}
}
// request itho status every systemConfig.itho_updatefreq sec.
else if (millis() - query2401tim >= systemConfig.itho_updatefreq * 1000UL)
{
query2401tim = millis();
bool _updateMQTT = false;
if (systemConfig.itho_2401 == 1)
{
_updateMQTT = true;
i2c_queue_add_cmd([]()
{ sendQueryStatus(false); });
}
if (systemConfig.itho_31da == 1)
{
_updateMQTT = true;
i2c_queue_add_cmd([]()
{ sendQuery31DA(false); });
}
if (systemConfig.itho_31d9 == 1)
{
_updateMQTT = true;
i2c_queue_add_cmd([]()
{ sendQuery31D9(false); });
}
if (_updateMQTT)
{
i2c_queue_add_cmd([]()
{ updateMQTTihtoStatus = true; });
}
}
if (systemConfig.itho_sendjoin > 0 && !joinSend && ithoInitResult == 1)
{
joinSend = true;
i2c_queue_add_cmd([]()
{ sendRemoteCmd(0, IthoJoin); });
I_LOG("I2C init: Virtual remote join command send");
if (systemConfig.itho_sendjoin == 1)
{
systemConfig.itho_sendjoin = 0;
saveSystemConfig("flash");
}
}
// Itho queue
if (clearQueue)
{
clearQueue = false;
ithoQueue.clear_queue();
}
if (ithoQueue.ithoSpeedUpdated)
{
ithoQueue.ithoSpeedUpdated = false;
uint16_t speed = ithoQueue.get_itho_speed();
char buf[32]{};
snprintf(buf, sizeof(buf), "speed:%d", speed);
if (writeIthoVal(speed, &ithoCurrentVal, &updateIthoMQTT))
{
if (lastCmd.source == nullptr)
logLastCommand(buf, "ithoQueue");
sysStatReq = true;
}
else
{
logLastCommand(buf, "ithoQueue_error");
}
}
// System control tasks
if (wifiModeAP)
{
if (wifiConfig.aptimeout > 0 && wifiConfig.aptimeout < 255)
{
if (millis() - APmodeTimeout > (wifiConfig.aptimeout * 60 * 1000))
{
if (!wifiSTAconnected) // reset timout
APmodeTimeout = millis();
else // disable AP after wifiConfig.aptimeout min
WiFi.enableAP(false);
}
}
dnsServer.processNextRequest();
if (!wifiSTAconnected && !wifiSTAconnecting)
{
if (millis() - wifiLedUpdate >= 500)
{
wifiLedUpdate = millis();
if (digitalRead(wifi_led_pin) == LOW)
{
digitalWrite(wifi_led_pin, HIGH);
}
else
{
digitalWrite(wifi_led_pin, LOW);
}
}
}
}
if (WiFi.status() != WL_CONNECTED && wifiSTAshouldConnect && !wifiSTAconnecting)
{
if (digitalRead(wifi_led_pin) == LOW)
{
digitalWrite(wifi_led_pin, HIGH);
}
if (millis() - lastWIFIReconnectAttempt > 60000)
{
I_LOG("Attempt to reconnect WiFi");
lastWIFIReconnectAttempt = millis();
// Attempt to reconnect
if (connectWiFiSTA())
{
I_LOG("Reconnect WiFi successful");
lastWIFIReconnectAttempt = 0;
}
else
{
E_LOG("Reconnect WiFi failed!");
}
}
}
if (WiFi.status() == WL_CONNECTED && wifiSTAshouldConnect)
{
if (digitalRead(wifi_led_pin) == HIGH)
{
digitalWrite(wifi_led_pin, LOW);
}
}
if (runscan)
{
runscan = false;
scan.once_ms(10, wifiScan);
}
if (!(currentItho_fwversion() > 0) && millis() - lastVersionCheck > 60000)
{
lastVersionCheck = millis();
i2c_queue_add_cmd([]()
{ sendQueryDevicetype(false); });
}
if (ithoInitResult == -1)
{
if (millis() - mqttUpdatetim >= systemConfig.itho_updatefreq * 1000UL)
{
mqttUpdatetim = millis();
updateMQTTihtoStatus = true;
}
}
if (systemConfig.syssht30 == 1)
{
if (millis() - SHT3x_readout >= systemConfig.itho_updatefreq * 1000UL && (SHT3x_original || SHT3x_alternative))
{
SHT3x_readout = millis();
if (SHT3x_original || SHT3x_alternative)
{
i2c_queue_add_cmd([]()
{ update_sht_sensor(); });
}
}
}
if (reset_sht_sensor && (!SHT3x_alternative && !SHT3x_original))
{
reset_sht_sensor = false;
trigger_sht_sensor_reset();
ithoInitResult = 0;
ithoInitResultLogEntry = true;
i2c_init_functions_done = false;
sysStatReq = true;
N_LOG("SHT3x sensor reset: executed");
jsonSysmessage("i2c_sht_reset", "Done");
}
}
void update_sht_sensor()
{
if (SHT3x_original)
{
if (reset_sht_sensor)
{
reset_sht_sensor = false;
bool reset_res = sht_org.softReset();
if (reset_res)
{
ithoInitResult = 0;
ithoInitResultLogEntry = true;
i2c_init_functions_done = false;
sysStatReq = true;
}
N_LOG("SHT3x sensor reset: %s", reset_res ? "Success" : "Failed");
char buf[32]{};
snprintf(buf, sizeof(buf), "%s", reset_res ? "OK" : "NOK");
jsonSysmessage("i2c_sht_reset", buf);
}
else if (sht_org.readSample())
{
ithoHum = sht_org.getHumidity();
ithoTemp = sht_org.getTemperature();
}
}
if (SHT3x_alternative)
{
if (reset_sht_sensor)
{
reset_sht_sensor = false;
bool reset_res = sht_alt.softReset();
if (reset_res)
{
ithoInitResult = 0;
ithoInitResultLogEntry = true;
i2c_init_functions_done = false;
sysStatReq = true;
}
N_LOG("SHT3x sensor reset: %s", reset_res ? "Success" : "Failed");
char buf[32]{};
snprintf(buf, sizeof(buf), "%s", reset_res ? "OK" : "NOK");
jsonSysmessage("i2c_sht_reset", buf);
}
else if (sht_alt.readSample())
{
ithoHum = sht_alt.getHumidity();
ithoTemp = sht_alt.getTemperature();
}
}
}
void init_i2c_functions()
{
if (millis() > 15000 && (millis() - lastI2CinitRequest > 5000))
{
lastI2CinitRequest = millis();
sendQueryDevicetype(false);
if (currentItho_fwversion() > 0)
{
N_LOG("I2C init: QueryDevicetype - mfr:0x%02X type:0x%02X fw:0x%02X hw:0x%02X", currentIthoDeviceGroup(), currentIthoDeviceID(), currentItho_fwversion(), currentItho_hwversion());
ithoInitResult = 1;
i2c_init_functions_done = true;
if (hardware_rev_det == 0x3F || hardware_rev_det == 0x03) // CVE
{
digitalWrite(itho_status_pin, HIGH);
}
else // NON-CVE
{
digitalWrite(status_pin, HIGH);
}
if (systemConfig.syssht30 > 0)
{
if (currentIthoDeviceID() == 0x1B)
{
uint8_t index = 0;
int32_t value = 0;
if (systemConfig.syssht30 == 1)
{
/*
switch itho hum setting off on every boot because
hum sensor setting gets restored in itho firmware after power cycle
*/
value = 0;
}
else if (systemConfig.syssht30 == 2)
{
/*
if value == 2 setting changed from 1 -> 0
then restore itho hum setting back to "on"
*/
value = 1;
}
if (currentItho_fwversion() == 25)
{
index = 63;
}
else if (currentItho_fwversion() == 26 || currentItho_fwversion() == 27)
{
index = 71;
}
if (index > 0)
{
i2c_queue_add_cmd([index]()
{ sendQuery2410(index, false); });
i2c_queue_add_cmd([index, value]()
{ setSetting2410(index, value, false); });
N_LOG("I2C init: set hum sensor in itho firmware to: %s", value ? "on" : "off");
}
}
if (systemConfig.syssht30 == 2)
{
systemConfig.syssht30 = 0;
saveSystemConfig("flash");
}
}
sendQueryStatusFormat(false);
N_LOG("I2C init: QueryStatusFormat - items:%lu", static_cast<unsigned long>(ithoStatus.size()));
if (systemConfig.itho_2401 == 1)
{
sendQueryStatus(false);
N_LOG("I2C init: QueryStatus");
}
if (systemConfig.i2c_safe_guard > 0 && currentIthoDeviceID() == 0x1B)
{
if (i2c_sniffer_capable)
{
if (systemConfig.syssht30 == 0 && currentItho_fwversion() >= 25)
{
N_LOG("I2C init: Safe guard enabled");
i2c_safe_guard.i2c_safe_guard_enabled = true;
i2c_sniffer_enable();
}
else
{
if (systemConfig.i2c_safe_guard == 1)
{
W_LOG("I2C init: i2c safe guard could not be enabled");
}
}
}
else
{
if (systemConfig.i2c_safe_guard == 1)
{
E_LOG("I2C init: i2c safe guard needs sniffer capable hardware");
}
}
}
else
{
if (systemConfig.i2c_safe_guard == 1)
{
E_LOG("I2C init: i2c safe guard needs supported itho device to work");
}
}
if (systemConfig.i2c_sniffer == 1)
{
if (!i2c_sniffer_capable)
{
E_LOG("I2C init: i2c sniffer needs sniffer capable hardware");
}
else
{
N_LOG("I2C init: i2c sniffer enabled");
i2c_safe_guard.sniffer_enabled = true;
i2c_sniffer_enable();
}
}
sendHomeAssistantDiscovery = true;
}
else
{
if (ithoInitResultLogEntry)
{
if (ithoInitResult != -2)
{
ithoInitResult = -1;
}
ithoInitResultLogEntry = false;
E_LOG("I2C init: QueryDevicetype - failed");
}
}
}
}
void wifiInit()
{
WiFi.onEvent(WiFiEvent);
setupWiFigeneric();
if (!loadWifiConfig("flash"))
{
E_LOG("Setup: Wifi config load failed");
}
if (wifiConfig.aptimeout > 0)
{
I_LOG("Setup: starting wifi access point");
setupWiFiAP();
}
if (strcmp(wifiConfig.ssid, "") != 0)
{
connectWiFiSTA();
}
else
{
I_LOG("Setup: initial wifi config still there");
}
if (strcmp(wifiConfig.ntpserver, "") != 0)
{
configTime(0, 0, wifiConfig.ntpserver);
}
// set timezone
const char *tz_string = wifiConfig.getTimeZoneStr();
N_LOG("Timezone: %s, specifier %s ", wifiConfig.timezone, tz_string);
setenv("TZ", tz_string, 1);
tzset();
WiFi.scanDelete();
if (WiFi.scanComplete() == -2)
{
WiFi.scanNetworks(true);
}
}
void WiFiEvent(WiFiEvent_t event, arduino_event_info_t info)
{
/*
* WiFi Events
0 ARDUINO_EVENT_WIFI_READY < ESP32 WiFi ready
1 ARDUINO_EVENT_WIFI_SCAN_DONE < ESP32 finish scanning AP
2 ARDUINO_EVENT_WIFI_STA_START < ESP32 station start
3 ARDUINO_EVENT_WIFI_STA_STOP < ESP32 station stop
4 ARDUINO_EVENT_WIFI_STA_CONNECTED < ESP32 station connected to AP
5 ARDUINO_EVENT_WIFI_STA_DISCONNECTED < ESP32 station disconnected from AP
6 ARDUINO_EVENT_WIFI_STA_AUTHMODE_CHANGE < the auth mode of AP connected by ESP32 station changed
7 ARDUINO_EVENT_WIFI_STA_GOT_IP < ESP32 station got IP from connected AP
8 ARDUINO_EVENT_WIFI_STA_LOST_IP < ESP32 station lost IP and the IP is reset to 0
9 ARDUINO_EVENT_WPS_ER_SUCCESS < ESP32 station wps succeeds in enrollee mode
10 ARDUINO_EVENT_WPS_ER_FAILED < ESP32 station wps fails in enrollee mode
11 ARDUINO_EVENT_WPS_ER_TIMEOUT < ESP32 station wps timeout in enrollee mode
12 ARDUINO_EVENT_WPS_ER_PIN < ESP32 station wps pin code in enrollee mode
13 ARDUINO_EVENT_WIFI_AP_START < ESP32 soft-AP start
14 ARDUINO_EVENT_WIFI_AP_STOP < ESP32 soft-AP stop
15 ARDUINO_EVENT_WIFI_AP_STACONNECTED < a station connected to ESP32 soft-AP
16 ARDUINO_EVENT_WIFI_AP_STADISCONNECTED < a station disconnected from ESP32 soft-AP
17 ARDUINO_EVENT_WIFI_AP_STAIPASSIGNED < ESP32 soft-AP assign an IP to a connected station
18 ARDUINO_EVENT_WIFI_AP_PROBEREQRECVED < Receive probe request packet in soft-AP interface
19 ARDUINO_EVENT_WIFI_AP_GOT_IP6 < ESP32 ap interface v6IP addr is preferred
19 ARDUINO_EVENT_WIFI_STA_GOT_IP6 < ESP32 station interface v6IP addr is preferred
20 ARDUINO_EVENT_ETH_START < ESP32 ethernet start
21 ARDUINO_EVENT_ETH_STOP < ESP32 ethernet stop
22 ARDUINO_EVENT_ETH_CONNECTED < ESP32 ethernet phy link up
23 ARDUINO_EVENT_ETH_DISCONNECTED < ESP32 ethernet phy link down
24 ARDUINO_EVENT_ETH_GOT_IP < ESP32 ethernet got IP from connected AP
19 ARDUINO_EVENT_ETH_GOT_IP6 < ESP32 ethernet interface v6IP addr is preferred
25 ARDUINO_EVENT_MAX
*/
char buf[70]{};
switch (event)
{
case ARDUINO_EVENT_WIFI_READY:
strlcpy(buf, "WiFi interface ready", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_SCAN_DONE:
strlcpy(buf, "Completed scan for access points", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_START:
strlcpy(buf, "WiFi client started", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_STOP:
wifiSTAshouldConnect = false;
strlcpy(buf, "WiFi clients stopped", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_CONNECTED:
strlcpy(buf, "Connected to access point", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_DISCONNECTED:
wifiSTAconnected = false;
wifiSTAshouldConnect = true;
strlcpy(buf, "Disconnected from WiFi access point", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_AUTHMODE_CHANGE:
strlcpy(buf, "Authentication mode of access point has changed", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_GOT_IP:
{
wifiSTAconnected = true;
logWifiInfo();
strlcpy(buf, "WiFi client got IP", sizeof(buf));
break;
}
case ARDUINO_EVENT_WIFI_STA_LOST_IP:
wifiSTAconnected = false;
wifiSTAshouldConnect = true;
strlcpy(buf, "Lost IP address and IP address is reset to 0", sizeof(buf));
break;
case ARDUINO_EVENT_WPS_ER_SUCCESS:
strlcpy(buf, "WiFi Protected Setup (WPS): succeeded in enrollee mode", sizeof(buf));
break;
case ARDUINO_EVENT_WPS_ER_FAILED:
strlcpy(buf, "WiFi Protected Setup (WPS): failed in enrollee mode", sizeof(buf));
break;
case ARDUINO_EVENT_WPS_ER_TIMEOUT:
strlcpy(buf, "WiFi Protected Setup (WPS): timeout in enrollee mode", sizeof(buf));
break;
case ARDUINO_EVENT_WPS_ER_PIN:
strlcpy(buf, "WiFi Protected Setup (WPS): pin code in enrollee mode", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_AP_START:
{
wifiModeAP = true;
strlcpy(buf, "WiFi access point started", sizeof(buf));
break;
}
case ARDUINO_EVENT_WIFI_AP_STOP:
{
wifiModeAP = false;
strlcpy(buf, "WiFi access point stopped", sizeof(buf));
break;
}
case ARDUINO_EVENT_WIFI_AP_STACONNECTED:
strlcpy(buf, "Client connected", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_AP_STADISCONNECTED:
strlcpy(buf, "Client disconnected", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_AP_STAIPASSIGNED:
strlcpy(buf, "Assigned IP address to client", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_AP_PROBEREQRECVED:
strlcpy(buf, "Received probe request", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_AP_GOT_IP6:
strlcpy(buf, "AP IPv6 is preferred", sizeof(buf));
break;
case ARDUINO_EVENT_WIFI_STA_GOT_IP6:
strlcpy(buf, "STA IPv6 is preferred", sizeof(buf));
break;
case ARDUINO_EVENT_ETH_GOT_IP6:
break;
case ARDUINO_EVENT_ETH_START:
break;
case ARDUINO_EVENT_ETH_STOP:
break;
case ARDUINO_EVENT_ETH_CONNECTED:
break;
case ARDUINO_EVENT_ETH_DISCONNECTED:
break;
case ARDUINO_EVENT_ETH_GOT_IP:
break;
default:
break;
}
D_LOG("WiFi-event: %d - %s", event, buf);
}
void setupWiFiAP()
{
static char apname[32]{};
snprintf(apname, sizeof(apname), "%s%02x%02x", espName, sys.getMac(4), sys.getMac(5));
/* Soft AP network parameters */
IPAddress apIP(192, 168, 4, 1);
IPAddress netMsk(255, 255, 255, 0);
WiFi.softAPConfig(apIP, apIP, netMsk);
WiFi.softAP(apname, wifiConfig.appasswd);
WiFi.enableAP(true);
delay(500);
/* Setup the DNS server redirecting all the domains to the apIP */
dnsServer.setErrorReplyCode(DNSReplyCode::NoError);
dnsServer.start(53, "*", apIP);
// wifiModeAP = true;
APmodeTimeout = millis();
N_LOG("wifi AP mode started");
}
void setupWiFigeneric()
{
// Do not use SDK storage of SSID/WPA parameters
WiFi.persistent(false);
// Set wifi mode to STA for next step (clear config)
if (!WiFi.mode(WIFI_STA))
E_LOG("Unable to set WiFi mode to STA");
// Clear any saved wifi config
esp_err_t wifi_restore = esp_wifi_restore();
D_LOG("esp_wifi_restore: %s", esp_err_to_name(wifi_restore));
// Disconnect any existing connections and clear
if (!WiFi.disconnect(true, true))
E_LOG("Unable to set wifi disconnect");
// Reset wifi mode to NULL
if (!WiFi.mode(WIFI_MODE_NULL))
E_LOG("Unable to set WiFi mode to NULL");
// Set hostname
bool setHostname_result = WiFi.setHostname(hostName());
D_LOG("WiFi.setHostname: %s", setHostname_result ? "OK" : "NOK");
// No AutoReconnect
if (!WiFi.setAutoReconnect(false))
E_LOG("Unable to set auto reconnect");
delay(200);
// Begin init of actual wifi connection
// Set correct mode
if (!WiFi.mode(WIFI_AP_STA))
E_LOG("Unable to set WiFi mode");
esp_err_t esp_wifi_set_max_tx_power(int8_t power);
esp_err_t wifi_set_max_tx_power = esp_wifi_set_max_tx_power(78);
D_LOG("esp_wifi_set_max_tx_power: %s", esp_err_to_name(wifi_set_max_tx_power));
int8_t wifi_power_level = -1;
esp_err_t wifi_get_max_tx_power = esp_wifi_get_max_tx_power(&wifi_power_level);
D_LOG("esp_wifi_get_max_tx_power: %s - level:%d", esp_err_to_name(wifi_get_max_tx_power), wifi_power_level);
// Do not use flash storage for wifi settings
esp_err_t wifi_set_storage = esp_wifi_set_storage(WIFI_STORAGE_RAM);
D_LOG("esp_wifi_set_storage: %s", esp_err_to_name(wifi_set_storage));
// No power saving
esp_err_t wifi_set_ps = esp_wifi_set_ps(WIFI_PS_NONE);
D_LOG("esp_wifi_set_ps: %s", esp_err_to_name(wifi_set_ps));
}
bool connectWiFiSTA(bool restore)
{
wifiSTAconnecting = true;
// Switch from defualt WIFI_FAST_SCAN ScanMethod to WIFI_ALL_CHANNEL_SCAN. Also set sortMethod to WIFI_CONNECT_AP_BY_SIGNAL just to be sure.
// WIFI_FAST_SCAN will connect to the first SSID match found causing connection issues when multiple AP active with the same SSID name
WiFi.setSortMethod(WIFI_CONNECT_AP_BY_SIGNAL);
WiFi.setScanMethod(WIFI_ALL_CHANNEL_SCAN);
if (strcmp(wifiConfig.dhcp, "off") == 0)
{
set_static_ip_config();
}
delay(2000);
// wifiModeAP = false;
D_LOG("Connecting to wireless network...");
WiFi.begin(wifiConfig.ssid, wifiConfig.passwd);
auto timeoutmillis = millis() + 30000;
wl_status_t status = WiFi.status();
while (millis() < timeoutmillis)
{
esp_task_wdt_reset();
status = WiFi.status();
if (status == WL_CONNECTED)
{
digitalWrite(wifi_led_pin, LOW);
wifiSTAconnecting = false;
return true;
}
if (digitalRead(wifi_led_pin) == LOW)
{
digitalWrite(wifi_led_pin, HIGH);
}
else
{
digitalWrite(wifi_led_pin, LOW);
}
delay(100);
}
digitalWrite(wifi_led_pin, HIGH);
E_LOG("Setup: wifi not connected - %s", wifiConfig.wl_status_to_name(status));
wifiSTAconnecting = false;
wifiSTAshouldConnect = true;
return false;
}
void set_static_ip_config()
{
bool configOK = true;
IPAddress staticIP;
IPAddress gateway;
IPAddress subnet;
IPAddress dns1;
IPAddress dns2;
if (!staticIP.fromString(wifiConfig.ip))
{
configOK = false;
}
if (!gateway.fromString(wifiConfig.gateway))
{
configOK = false;
}
if (!subnet.fromString(wifiConfig.subnet))
{
configOK = false;
}
if (!dns1.fromString(wifiConfig.dns1))
{
configOK = false;
}
if (!dns2.fromString(wifiConfig.dns2))
{
configOK = false;
}
if (configOK)
{
if (!WiFi.config(staticIP, gateway, subnet, dns1, dns2))
{
E_LOG("Static IP config NOK");
}
else
{
I_LOG("Static IP config OK");
}
}
}
void initSensor()
{
if (systemConfig.syssht30 == 1)
{
if (sht_org.init() && sht_org.readSample())
{
SHT3x_original = true;
}
else if (sht_alt.init() && sht_alt.readSample())
{
SHT3x_alternative = true;
}
if (SHT3x_original)
{
N_LOG("Setup: Original SHT30 sensor found");
}
else if (SHT3x_alternative)
{
N_LOG("Setup: Alternative SHT30 sensor found");
}
if (SHT3x_original || SHT3x_alternative)
{
return;
}
delay(200);
if (sht_org.init() && sht_org.readSample())
{
SHT3x_original = true;
}
else if (sht_alt.init() && sht_alt.readSample())
{
SHT3x_alternative = true;
}
if (SHT3x_original)
{
W_LOG("Setup: Original SHT30 sensor found (2nd try)");
}
else if (SHT3x_alternative)
{
W_LOG("Setup: Alternative SHT30 sensor found (2nd try)");
}
else
{
systemConfig.syssht30 = 0;
N_LOG("Setup: SHT30 sensor not present");
}
}
}
void init_vRemote()
{
// setup virtual remote
I_LOG("Setup: Virtual remotes, start ID: %02X,%02X,%02X - No.: %d", sys.getMac(3), sys.getMac(4), sys.getMac(5), systemConfig.itho_numvrem);
virtualRemotes.setMaxRemotes(systemConfig.itho_numvrem);
loadVirtualRemotesConfig("flash");
}
bool ithoInitCheck()
{
if (hardware_rev_det == 0x3F || hardware_rev_det == 0x03) // CVE
{
if (digitalRead(status_pin) == LOW)
{
return false;
}
if (systemConfig.itho_pwm2i2c)
{
sendI2CPWMinit();
}
}
return false;
}
void update_queue()
{
ithoQueue.update_queue();
}
// Update itho Value
bool writeIthoVal(uint16_t value, volatile uint16_t *ithoCurrentVal, bool *updateIthoMQTT)
{
if (systemConfig.itho_pwm2i2c != 1)
return false;
if (value > 256)
return false;
if (*ithoCurrentVal != value)
{
i2c_queue_add_cmd([value, ithoCurrentVal, updateIthoMQTT]()
{ IthoPWMcommand(value, ithoCurrentVal, updateIthoMQTT); });