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c8f48168b4893540b248f75d04cb37ffd9484545
WLED/wled00/cfg.cpp
Damian Schneider c8f48168b4 fixed touch buttons for ESP32 S2 and S3 
touch is implemented differently on S2 and S3, these changes make touch buttons work on S2 and S3
2024-03-04 14:38:37 +01:00

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#include "wled.h"
#include "wled_ethernet.h"
/*
* Serializes and parses the cfg.json and wsec.json settings files, stored in internal FS.
* The structure of the JSON is not to be considered an official API and may change without notice.
*/
//simple macro for ArduinoJSON's or syntax
#define CJSON(a,b) a = b | a
void getStringFromJson(char* dest, const char* src, size_t len) {
if (src != nullptr) strlcpy(dest, src, len);
}
bool deserializeConfig(JsonObject doc, bool fromFS) {
bool needsSave = false;
//int rev_major = doc["rev"][0]; // 1
//int rev_minor = doc["rev"][1]; // 0
//long vid = doc[F("vid")]; // 2010020
#ifdef WLED_USE_ETHERNET
JsonObject ethernet = doc[F("eth")];
CJSON(ethernetType, ethernet["type"]);
// NOTE: Ethernet configuration takes priority over other use of pins
WLED::instance().initEthernet();
#endif
JsonObject id = doc["id"];
getStringFromJson(cmDNS, id[F("mdns")], 33);
getStringFromJson(serverDescription, id[F("name")], 33);
getStringFromJson(alexaInvocationName, id[F("inv")], 33);
CJSON(simplifiedUI, id[F("sui")]);
JsonObject nw = doc["nw"];
#ifndef WLED_DISABLE_ESPNOW
CJSON(enableESPNow, nw[F("espnow")]);
getStringFromJson(linked_remote, nw[F("linked_remote")], 13);
linked_remote[12] = '\0';
#endif
size_t n = 0;
JsonArray nw_ins = nw["ins"];
if (!nw_ins.isNull()) {
// as password are stored separately in wsec.json when reading configuration vector resize happens there, but for dynamic config we need to resize if necessary
if (nw_ins.size() > 1 && nw_ins.size() > multiWiFi.size()) multiWiFi.resize(nw_ins.size()); // resize constructs objects while resizing
for (JsonObject wifi : nw_ins) {
JsonArray ip = wifi["ip"];
JsonArray gw = wifi["gw"];
JsonArray sn = wifi["sn"];
char ssid[33] = "";
char pass[65] = "";
IPAddress nIP = (uint32_t)0U, nGW = (uint32_t)0U, nSN = (uint32_t)0x00FFFFFF; // little endian
getStringFromJson(ssid, wifi[F("ssid")], 33);
getStringFromJson(pass, wifi["psk"], 65); // password is not normally present but if it is, use it
for (size_t i = 0; i < 4; i++) {
CJSON(nIP[i], ip[i]);
CJSON(nGW[i], gw[i]);
CJSON(nSN[i], sn[i]);
}
if (strlen(ssid) > 0) strlcpy(multiWiFi[n].clientSSID, ssid, 33); // this will keep old SSID intact if not present in JSON
if (strlen(pass) > 0) strlcpy(multiWiFi[n].clientPass, pass, 65); // this will keep old password intact if not present in JSON
multiWiFi[n].staticIP = nIP;
multiWiFi[n].staticGW = nGW;
multiWiFi[n].staticSN = nSN;
if (++n >= WLED_MAX_WIFI_COUNT) break;
}
}
JsonArray dns = nw[F("dns")];
if (!dns.isNull()) {
for (size_t i = 0; i < 4; i++) {
CJSON(dnsAddress[i], dns[i]);
}
}
JsonObject ap = doc["ap"];
getStringFromJson(apSSID, ap[F("ssid")], 33);
getStringFromJson(apPass, ap["psk"] , 65); //normally not present due to security
//int ap_pskl = ap[F("pskl")];
CJSON(apChannel, ap[F("chan")]);
if (apChannel > 13 || apChannel < 1) apChannel = 1;
CJSON(apHide, ap[F("hide")]);
if (apHide > 1) apHide = 1;
CJSON(apBehavior, ap[F("behav")]);
/*
JsonArray ap_ip = ap["ip"];
for (byte i = 0; i < 4; i++) {
apIP[i] = ap_ip;
}
*/
noWifiSleep = doc[F("wifi")][F("sleep")] | !noWifiSleep; // inverted
noWifiSleep = !noWifiSleep;
force802_3g = doc[F("wifi")][F("phy")] | force802_3g; //force phy mode g?
JsonObject hw = doc[F("hw")];
// initialize LED pins and lengths prior to other HW (except for ethernet)
JsonObject hw_led = hw["led"];
uint16_t total = hw_led[F("total")] | strip.getLengthTotal();
uint16_t ablMilliampsMax = hw_led[F("maxpwr")] | BusManager::ablMilliampsMax();
BusManager::setMilliampsMax(ablMilliampsMax);
Bus::setGlobalAWMode(hw_led[F("rgbwm")] | AW_GLOBAL_DISABLED);
CJSON(correctWB, hw_led["cct"]);
CJSON(cctFromRgb, hw_led[F("cr")]);
CJSON(strip.cctBlending, hw_led[F("cb")]);
Bus::setCCTBlend(strip.cctBlending);
strip.setTargetFps(hw_led["fps"]); //NOP if 0, default 42 FPS
CJSON(useGlobalLedBuffer, hw_led[F("ld")]);
#ifndef WLED_DISABLE_2D
// 2D Matrix Settings
JsonObject matrix = hw_led[F("matrix")];
if (!matrix.isNull()) {
strip.isMatrix = true;
CJSON(strip.panels, matrix[F("mpc")]);
strip.panel.clear();
JsonArray panels = matrix[F("panels")];
uint8_t s = 0;
if (!panels.isNull()) {
strip.panel.reserve(max(1U,min((size_t)strip.panels,(size_t)WLED_MAX_PANELS))); // pre-allocate memory for panels
for (JsonObject pnl : panels) {
WS2812FX::Panel p;
CJSON(p.bottomStart, pnl["b"]);
CJSON(p.rightStart, pnl["r"]);
CJSON(p.vertical, pnl["v"]);
CJSON(p.serpentine, pnl["s"]);
CJSON(p.xOffset, pnl["x"]);
CJSON(p.yOffset, pnl["y"]);
CJSON(p.height, pnl["h"]);
CJSON(p.width, pnl["w"]);
strip.panel.push_back(p);
if (++s >= WLED_MAX_PANELS || s >= strip.panels) break; // max panels reached
}
} else {
// fallback
WS2812FX::Panel p;
strip.panels = 1;
p.height = p.width = 8;
p.xOffset = p.yOffset = 0;
p.options = 0;
strip.panel.push_back(p);
}
// cannot call strip.setUpMatrix() here due to already locked JSON buffer
}
#endif
JsonArray ins = hw_led["ins"];
if (fromFS || !ins.isNull()) {
uint8_t s = 0; // bus iterator
if (fromFS) BusManager::removeAll(); // can't safely manipulate busses directly in network callback
uint32_t mem = 0, globalBufMem = 0;
uint16_t maxlen = 0;
bool busesChanged = false;
for (JsonObject elm : ins) {
if (s >= WLED_MAX_BUSSES+WLED_MIN_VIRTUAL_BUSSES) break;
uint8_t pins[5] = {255, 255, 255, 255, 255};
JsonArray pinArr = elm["pin"];
if (pinArr.size() == 0) continue;
pins[0] = pinArr[0];
uint8_t i = 0;
for (int p : pinArr) {
pins[i++] = p;
if (i>4) break;
}
uint16_t length = elm["len"] | 1;
uint8_t colorOrder = (int)elm[F("order")]; // contains white channel swap option in upper nibble
uint8_t skipFirst = elm[F("skip")];
uint16_t start = elm["start"] | 0;
if (length==0 || start + length > MAX_LEDS) continue; // zero length or we reached max. number of LEDs, just stop
uint8_t ledType = elm["type"] | TYPE_WS2812_RGB;
bool reversed = elm["rev"];
bool refresh = elm["ref"] | false;
uint16_t freqkHz = elm[F("freq")] | 0; // will be in kHz for DotStar and Hz for PWM (not yet implemented fully)
uint8_t AWmode = elm[F("rgbwm")] | RGBW_MODE_MANUAL_ONLY;
uint8_t maPerLed = elm[F("ledma")] | 55;
uint16_t maMax = elm[F("maxpwr")] | (ablMilliampsMax * length) / total; // rough (incorrect?) per strip ABL calculation when no config exists
// To disable brightness limiter we either set output max current to 0 or single LED current to 0 (we choose output max current)
if ((ledType > TYPE_TM1814 && ledType < TYPE_WS2801) || ledType >= TYPE_NET_DDP_RGB) { // analog and virtual
maPerLed = 0;
maMax = 0;
}
ledType |= refresh << 7; // hack bit 7 to indicate strip requires off refresh
if (fromFS) {
BusConfig bc = BusConfig(ledType, pins, start, length, colorOrder, reversed, skipFirst, AWmode, freqkHz, useGlobalLedBuffer, maPerLed, maMax);
mem += BusManager::memUsage(bc);
if (useGlobalLedBuffer && start + length > maxlen) {
maxlen = start + length;
globalBufMem = maxlen * 4;
}
if (mem + globalBufMem <= MAX_LED_MEMORY) if (BusManager::add(bc) == -1) break; // finalization will be done in WLED::beginStrip()
} else {
if (busConfigs[s] != nullptr) delete busConfigs[s];
busConfigs[s] = new BusConfig(ledType, pins, start, length, colorOrder, reversed, skipFirst, AWmode, freqkHz, useGlobalLedBuffer, maPerLed, maMax);
busesChanged = true;
}
s++;
}
doInitBusses = busesChanged;
// finalization done in beginStrip()
}
if (hw_led["rev"]) BusManager::getBus(0)->setReversed(true); //set 0.11 global reversed setting for first bus
// read color order map configuration
JsonArray hw_com = hw[F("com")];
if (!hw_com.isNull()) {
ColorOrderMap com = {};
uint8_t s = 0;
for (JsonObject entry : hw_com) {
if (s > WLED_MAX_COLOR_ORDER_MAPPINGS) break;
uint16_t start = entry["start"] | 0;
uint16_t len = entry["len"] | 0;
uint8_t colorOrder = (int)entry[F("order")];
com.add(start, len, colorOrder);
s++;
}
BusManager::updateColorOrderMap(com);
}
// read multiple button configuration
JsonObject btn_obj = hw["btn"];
CJSON(touchThreshold, btn_obj[F("tt")]);
bool pull = btn_obj[F("pull")] | (!disablePullUp); // if true, pullup is enabled
disablePullUp = !pull;
JsonArray hw_btn_ins = btn_obj["ins"];
if (!hw_btn_ins.isNull()) {
for (uint8_t b = 0; b < WLED_MAX_BUTTONS; b++) { // deallocate existing button pins
pinManager.deallocatePin(btnPin[b], PinOwner::Button); // does nothing if trying to deallocate a pin with PinOwner != Button
}
uint8_t s = 0;
for (JsonObject btn : hw_btn_ins) {
CJSON(buttonType[s], btn["type"]);
int8_t pin = btn["pin"][0] | -1;
if (pin > -1 && pinManager.allocatePin(pin, false, PinOwner::Button)) {
btnPin[s] = pin;
#ifdef ARDUINO_ARCH_ESP32
// ESP32 only: check that analog button pin is a valid ADC gpio
if (((buttonType[s] == BTN_TYPE_ANALOG) || (buttonType[s] == BTN_TYPE_ANALOG_INVERTED)) && (digitalPinToAnalogChannel(btnPin[s]) < 0))
{
// not an ADC analog pin
DEBUG_PRINT(F("PIN ALLOC error: GPIO")); DEBUG_PRINT(btnPin[s]);
DEBUG_PRINT(F("for analog button #")); DEBUG_PRINT(s);
DEBUG_PRINTLN(F(" is not an analog pin!"));
btnPin[s] = -1;
pinManager.deallocatePin(pin,PinOwner::Button);
}
//if touch pin, enable the touch interrupt on ESP32 S2 & S3
#ifdef SOC_TOUCH_VERSION_2 // ESP32 S2 and S3 have a fucntion to check touch state but need to attach an interrupt to do so
else if ((buttonType[s] == BTN_TYPE_TOUCH || buttonType[s] == BTN_TYPE_TOUCH_SWITCH))
{
touchAttachInterrupt(btnPin[s], touchButtonISR, touchThreshold<<2); //threshold on Touch V2 is much higher (TODO: may need shift by 3 if very noisy)
}
#endif
else
#endif
{
if (disablePullUp) {
pinMode(btnPin[s], INPUT);
} else {
#ifdef ESP32
pinMode(btnPin[s], buttonType[s]==BTN_TYPE_PUSH_ACT_HIGH ? INPUT_PULLDOWN : INPUT_PULLUP);
#else
pinMode(btnPin[s], INPUT_PULLUP);
#endif
}
}
} else {
btnPin[s] = -1;
}
JsonArray hw_btn_ins_0_macros = btn["macros"];
CJSON(macroButton[s], hw_btn_ins_0_macros[0]);
CJSON(macroLongPress[s],hw_btn_ins_0_macros[1]);
CJSON(macroDoublePress[s], hw_btn_ins_0_macros[2]);
if (++s >= WLED_MAX_BUTTONS) break; // max buttons reached
}
// clear remaining buttons
for (; s<WLED_MAX_BUTTONS; s++) {
btnPin[s] = -1;
buttonType[s] = BTN_TYPE_NONE;
macroButton[s] = 0;
macroLongPress[s] = 0;
macroDoublePress[s] = 0;
}
} else {
// new install/missing configuration (button 0 has defaults)
if (fromFS) {
// relies upon only being called once with fromFS == true, which is currently true.
uint8_t s = 0;
if (pinManager.allocatePin(btnPin[0], false, PinOwner::Button)) { // initialized to #define value BTNPIN, or zero if not defined(!)
++s; // do not clear default button if allocated successfully
}
for (; s<WLED_MAX_BUTTONS; s++) {
btnPin[s] = -1;
buttonType[s] = BTN_TYPE_NONE;
macroButton[s] = 0;
macroLongPress[s] = 0;
macroDoublePress[s] = 0;
}
}
}
CJSON(buttonPublishMqtt,btn_obj["mqtt"]);
int hw_ir_pin = hw["ir"]["pin"] | -2; // 4
if (hw_ir_pin > -2) {
pinManager.deallocatePin(irPin, PinOwner::IR);
if (pinManager.allocatePin(hw_ir_pin, false, PinOwner::IR)) {
irPin = hw_ir_pin;
} else {
irPin = -1;
}
}
CJSON(irEnabled, hw["ir"]["type"]);
CJSON(irApplyToAllSelected, hw["ir"]["sel"]);
JsonObject relay = hw[F("relay")];
int hw_relay_pin = relay["pin"] | -2;
if (hw_relay_pin > -2) {
pinManager.deallocatePin(rlyPin, PinOwner::Relay);
if (pinManager.allocatePin(hw_relay_pin,true, PinOwner::Relay)) {
rlyPin = hw_relay_pin;
pinMode(rlyPin, OUTPUT);
} else {
rlyPin = -1;
}
}
if (relay.containsKey("rev")) {
rlyMde = !relay["rev"];
}
CJSON(serialBaud, hw[F("baud")]);
if (serialBaud < 96 || serialBaud > 15000) serialBaud = 1152;
updateBaudRate(serialBaud *100);
JsonArray hw_if_i2c = hw[F("if")][F("i2c-pin")];
CJSON(i2c_sda, hw_if_i2c[0]);
CJSON(i2c_scl, hw_if_i2c[1]);
PinManagerPinType i2c[2] = { { i2c_sda, true }, { i2c_scl, true } };
if (i2c_scl >= 0 && i2c_sda >= 0 && pinManager.allocateMultiplePins(i2c, 2, PinOwner::HW_I2C)) {
#ifdef ESP32
if (!Wire.setPins(i2c_sda, i2c_scl)) { i2c_scl = i2c_sda = -1; } // this will fail if Wire is initialised (Wire.begin() called prior)
else Wire.begin();
#else
Wire.begin(i2c_sda, i2c_scl);
#endif
} else {
i2c_sda = -1;
i2c_scl = -1;
}
JsonArray hw_if_spi = hw[F("if")][F("spi-pin")];
CJSON(spi_mosi, hw_if_spi[0]);
CJSON(spi_sclk, hw_if_spi[1]);
CJSON(spi_miso, hw_if_spi[2]);
PinManagerPinType spi[3] = { { spi_mosi, true }, { spi_miso, true }, { spi_sclk, true } };
if (spi_mosi >= 0 && spi_sclk >= 0 && pinManager.allocateMultiplePins(spi, 3, PinOwner::HW_SPI)) {
#ifdef ESP32
SPI.begin(spi_sclk, spi_miso, spi_mosi); // SPI global uses VSPI on ESP32 and FSPI on C3, S3
#else
SPI.begin();
#endif
} else {
spi_mosi = -1;
spi_miso = -1;
spi_sclk = -1;
}
//int hw_status_pin = hw[F("status")]["pin"]; // -1
JsonObject light = doc[F("light")];
CJSON(briMultiplier, light[F("scale-bri")]);
CJSON(strip.paletteBlend, light[F("pal-mode")]);
CJSON(autoSegments, light[F("aseg")]);
CJSON(gammaCorrectVal, light["gc"]["val"]); // default 2.8
float light_gc_bri = light["gc"]["bri"];
float light_gc_col = light["gc"]["col"];
if (light_gc_bri > 1.0f) gammaCorrectBri = true;
else gammaCorrectBri = false;
if (light_gc_col > 1.0f) gammaCorrectCol = true;
else gammaCorrectCol = false;
if (gammaCorrectVal > 1.0f && gammaCorrectVal <= 3) {
if (gammaCorrectVal != 2.8f) NeoGammaWLEDMethod::calcGammaTable(gammaCorrectVal);
} else {
gammaCorrectVal = 1.0f; // no gamma correction
gammaCorrectBri = false;
gammaCorrectCol = false;
}
JsonObject light_tr = light["tr"];
CJSON(fadeTransition, light_tr["mode"]);
CJSON(modeBlending, light_tr["fx"]);
int tdd = light_tr["dur"] | -1;
if (tdd >= 0) transitionDelay = transitionDelayDefault = tdd * 100;
strip.setTransition(fadeTransition ? transitionDelayDefault : 0);
CJSON(strip.paletteFade, light_tr["pal"]);
CJSON(randomPaletteChangeTime, light_tr[F("rpc")]);
CJSON(useHarmonicRandomPalette, light_tr[F("hrp")]);
JsonObject light_nl = light["nl"];
CJSON(nightlightMode, light_nl["mode"]);
byte prev = nightlightDelayMinsDefault;
CJSON(nightlightDelayMinsDefault, light_nl["dur"]);
if (nightlightDelayMinsDefault != prev) nightlightDelayMins = nightlightDelayMinsDefault;
CJSON(nightlightTargetBri, light_nl[F("tbri")]);
CJSON(macroNl, light_nl["macro"]);
JsonObject def = doc["def"];
CJSON(bootPreset, def["ps"]);
CJSON(turnOnAtBoot, def["on"]); // true
CJSON(briS, def["bri"]); // 128
JsonObject interfaces = doc["if"];
JsonObject if_sync = interfaces["sync"];
CJSON(udpPort, if_sync[F("port0")]); // 21324
CJSON(udpPort2, if_sync[F("port1")]); // 65506
#ifndef WLED_DISABLE_ESPNOW
CJSON(useESPNowSync, if_sync[F("espnow")]);
#endif
JsonObject if_sync_recv = if_sync[F("recv")];
CJSON(receiveNotificationBrightness, if_sync_recv["bri"]);
CJSON(receiveNotificationColor, if_sync_recv["col"]);
CJSON(receiveNotificationEffects, if_sync_recv["fx"]);
CJSON(receiveGroups, if_sync_recv["grp"]);
CJSON(receiveSegmentOptions, if_sync_recv["seg"]);
CJSON(receiveSegmentBounds, if_sync_recv["sb"]);
JsonObject if_sync_send = if_sync[F("send")];
CJSON(sendNotifications, if_sync_send["en"]);
sendNotificationsRT = sendNotifications;
CJSON(notifyDirect, if_sync_send[F("dir")]);
CJSON(notifyButton, if_sync_send["btn"]);
CJSON(notifyAlexa, if_sync_send["va"]);
CJSON(notifyHue, if_sync_send["hue"]);
CJSON(syncGroups, if_sync_send["grp"]);
if (if_sync_send[F("twice")]) udpNumRetries = 1; // import setting from 0.13 and earlier
CJSON(udpNumRetries, if_sync_send["ret"]);
JsonObject if_nodes = interfaces[F("nodes")];
CJSON(nodeListEnabled, if_nodes[F("list")]);
CJSON(nodeBroadcastEnabled, if_nodes[F("bcast")]);
JsonObject if_live = interfaces["live"];
CJSON(receiveDirect, if_live["en"]); // UDP/Hyperion realtime
CJSON(useMainSegmentOnly, if_live[F("mso")]);
CJSON(realtimeRespectLedMaps, if_live[F("rlm")]);
CJSON(e131Port, if_live["port"]); // 5568
if (e131Port == DDP_DEFAULT_PORT) e131Port = E131_DEFAULT_PORT; // prevent double DDP port allocation
CJSON(e131Multicast, if_live[F("mc")]);
JsonObject if_live_dmx = if_live["dmx"];
CJSON(e131Universe, if_live_dmx[F("uni")]);
CJSON(e131SkipOutOfSequence, if_live_dmx[F("seqskip")]);
CJSON(DMXAddress, if_live_dmx[F("addr")]);
if (!DMXAddress || DMXAddress > 510) DMXAddress = 1;
CJSON(DMXSegmentSpacing, if_live_dmx[F("dss")]);
if (DMXSegmentSpacing > 150) DMXSegmentSpacing = 0;
CJSON(e131Priority, if_live_dmx[F("e131prio")]);
if (e131Priority > 200) e131Priority = 200;
CJSON(DMXMode, if_live_dmx["mode"]);
tdd = if_live[F("timeout")] | -1;
if (tdd >= 0) realtimeTimeoutMs = tdd * 100;
CJSON(arlsForceMaxBri, if_live[F("maxbri")]);
CJSON(arlsDisableGammaCorrection, if_live[F("no-gc")]); // false
CJSON(arlsOffset, if_live[F("offset")]); // 0
CJSON(alexaEnabled, interfaces["va"][F("alexa")]); // false
CJSON(macroAlexaOn, interfaces["va"]["macros"][0]);
CJSON(macroAlexaOff, interfaces["va"]["macros"][1]);
CJSON(alexaNumPresets, interfaces["va"]["p"]);
#ifdef WLED_ENABLE_MQTT
JsonObject if_mqtt = interfaces["mqtt"];
CJSON(mqttEnabled, if_mqtt["en"]);
getStringFromJson(mqttServer, if_mqtt[F("broker")], MQTT_MAX_SERVER_LEN+1);
CJSON(mqttPort, if_mqtt["port"]); // 1883
getStringFromJson(mqttUser, if_mqtt[F("user")], 41);
getStringFromJson(mqttPass, if_mqtt["psk"], 65); //normally not present due to security
getStringFromJson(mqttClientID, if_mqtt[F("cid")], 41);
getStringFromJson(mqttDeviceTopic, if_mqtt[F("topics")][F("device")], MQTT_MAX_TOPIC_LEN+1); // "wled/test"
getStringFromJson(mqttGroupTopic, if_mqtt[F("topics")][F("group")], MQTT_MAX_TOPIC_LEN+1); // ""
CJSON(retainMqttMsg, if_mqtt[F("rtn")]);
#endif
#ifndef WLED_DISABLE_HUESYNC
JsonObject if_hue = interfaces["hue"];
CJSON(huePollingEnabled, if_hue["en"]);
CJSON(huePollLightId, if_hue["id"]);
tdd = if_hue[F("iv")] | -1;
if (tdd >= 2) huePollIntervalMs = tdd * 100;
JsonObject if_hue_recv = if_hue["recv"];
CJSON(hueApplyOnOff, if_hue_recv["on"]);
CJSON(hueApplyBri, if_hue_recv["bri"]);
CJSON(hueApplyColor, if_hue_recv["col"]);
JsonArray if_hue_ip = if_hue["ip"];
for (byte i = 0; i < 4; i++)
CJSON(hueIP[i], if_hue_ip[i]);
#endif
JsonObject if_ntp = interfaces[F("ntp")];
CJSON(ntpEnabled, if_ntp["en"]);
getStringFromJson(ntpServerName, if_ntp[F("host")], 33); // "1.wled.pool.ntp.org"
CJSON(currentTimezone, if_ntp[F("tz")]);
CJSON(utcOffsetSecs, if_ntp[F("offset")]);
CJSON(useAMPM, if_ntp[F("ampm")]);
CJSON(longitude, if_ntp[F("ln")]);
CJSON(latitude, if_ntp[F("lt")]);
JsonObject ol = doc[F("ol")];
CJSON(overlayCurrent ,ol[F("clock")]); // 0
CJSON(countdownMode, ol[F("cntdwn")]);
CJSON(overlayMin, ol["min"]);
CJSON(overlayMax, ol[F("max")]);
CJSON(analogClock12pixel, ol[F("o12pix")]);
CJSON(analogClock5MinuteMarks, ol[F("o5m")]);
CJSON(analogClockSecondsTrail, ol[F("osec")]);
CJSON(analogClockSolidBlack, ol[F("osb")]);
//timed macro rules
JsonObject tm = doc[F("timers")];
JsonObject cntdwn = tm[F("cntdwn")];
JsonArray cntdwn_goal = cntdwn[F("goal")];
CJSON(countdownYear, cntdwn_goal[0]);
CJSON(countdownMonth, cntdwn_goal[1]);
CJSON(countdownDay, cntdwn_goal[2]);
CJSON(countdownHour, cntdwn_goal[3]);
CJSON(countdownMin, cntdwn_goal[4]);
CJSON(countdownSec, cntdwn_goal[5]);
CJSON(macroCountdown, cntdwn["macro"]);
setCountdown();
JsonArray timers = tm["ins"];
uint8_t it = 0;
for (JsonObject timer : timers) {
if (it > 9) break;
if (it<8 && timer[F("hour")]==255) it=8; // hour==255 -> sunrise/sunset
CJSON(timerHours[it], timer[F("hour")]);
CJSON(timerMinutes[it], timer["min"]);
CJSON(timerMacro[it], timer["macro"]);
byte dowPrev = timerWeekday[it];
//note: act is currently only 0 or 1.
//the reason we are not using bool is that the on-disk type in 0.11.0 was already int
int actPrev = timerWeekday[it] & 0x01;
CJSON(timerWeekday[it], timer[F("dow")]);
if (timerWeekday[it] != dowPrev) { //present in JSON
timerWeekday[it] <<= 1; //add active bit
int act = timer["en"] | actPrev;
if (act) timerWeekday[it]++;
}
if (it<8) {
JsonObject start = timer["start"];
byte startm = start["mon"];
if (startm) timerMonth[it] = (startm << 4);
CJSON(timerDay[it], start["day"]);
JsonObject end = timer["end"];
CJSON(timerDayEnd[it], end["day"]);
byte endm = end["mon"];
if (startm) timerMonth[it] += endm & 0x0F;
if (!(timerMonth[it] & 0x0F)) timerMonth[it] += 12; //default end month to 12
}
it++;
}
JsonObject ota = doc["ota"];
const char* pwd = ota["psk"]; //normally not present due to security
bool pwdCorrect = !otaLock; //always allow access if ota not locked
if (pwd != nullptr && strncmp(otaPass, pwd, 33) == 0) pwdCorrect = true;
if (pwdCorrect) { //only accept these values from cfg.json if ota is unlocked (else from wsec.json)
CJSON(otaLock, ota[F("lock")]);
CJSON(wifiLock, ota[F("lock-wifi")]);
CJSON(aOtaEnabled, ota[F("aota")]);
getStringFromJson(otaPass, pwd, 33); //normally not present due to security
}
#ifdef WLED_ENABLE_DMX
JsonObject dmx = doc["dmx"];
CJSON(DMXChannels, dmx[F("chan")]);
CJSON(DMXGap,dmx[F("gap")]);
CJSON(DMXStart, dmx["start"]);
CJSON(DMXStartLED,dmx[F("start-led")]);
JsonArray dmx_fixmap = dmx[F("fixmap")];
for (int i = 0; i < dmx_fixmap.size(); i++) {
if (i > 14) break;
CJSON(DMXFixtureMap[i],dmx_fixmap[i]);
}
CJSON(e131ProxyUniverse, dmx[F("e131proxy")]);
#endif
DEBUG_PRINTLN(F("Starting usermod config."));
JsonObject usermods_settings = doc["um"];
if (!usermods_settings.isNull()) {
needsSave = !usermods.readFromConfig(usermods_settings);
}
if (fromFS) return needsSave;
// if from /json/cfg
doReboot = doc[F("rb")] | doReboot;
if (doInitBusses) return false; // no save needed, will do after bus init in wled.cpp loop
return (doc["sv"] | true);
}
void deserializeConfigFromFS() {
bool success = deserializeConfigSec();
if (!success) { //if file does not exist, try reading from EEPROM
#ifdef WLED_ADD_EEPROM_SUPPORT
deEEPSettings();
return;
#endif
}
if (!requestJSONBufferLock(1)) return;
DEBUG_PRINTLN(F("Reading settings from /cfg.json..."));
success = readObjectFromFile("/cfg.json", nullptr, pDoc);
if (!success) { // if file does not exist, optionally try reading from EEPROM and then save defaults to FS
releaseJSONBufferLock();
#ifdef WLED_ADD_EEPROM_SUPPORT
deEEPSettings();
#endif
// save default values to /cfg.json
// call readFromConfig() with an empty object so that usermods can initialize to defaults prior to saving
JsonObject empty = JsonObject();
usermods.readFromConfig(empty);
serializeConfig();
// init Ethernet (in case default type is set at compile time)
#ifdef WLED_USE_ETHERNET
WLED::instance().initEthernet();
#endif
return;
}
// NOTE: This routine deserializes *and* applies the configuration
// Therefore, must also initialize ethernet from this function
JsonObject root = pDoc->as<JsonObject>();
bool needsSave = deserializeConfig(root, true);
releaseJSONBufferLock();
if (needsSave) serializeConfig(); // usermods required new parameters
}
void serializeConfig() {
serializeConfigSec();
DEBUG_PRINTLN(F("Writing settings to /cfg.json..."));
if (!requestJSONBufferLock(2)) return;
JsonObject root = pDoc->to<JsonObject>();
JsonArray rev = root.createNestedArray("rev");
rev.add(1); //major settings revision
rev.add(0); //minor settings revision
root[F("vid")] = VERSION;
JsonObject id = root.createNestedObject("id");
id[F("mdns")] = cmDNS;
id[F("name")] = serverDescription;
id[F("inv")] = alexaInvocationName;
id[F("sui")] = simplifiedUI;
JsonObject nw = root.createNestedObject("nw");
#ifndef WLED_DISABLE_ESPNOW
nw[F("espnow")] = enableESPNow;
nw[F("linked_remote")] = linked_remote;
#endif
JsonArray nw_ins = nw.createNestedArray("ins");
for (size_t n = 0; n < multiWiFi.size(); n++) {
JsonObject wifi = nw_ins.createNestedObject();
wifi[F("ssid")] = multiWiFi[n].clientSSID;
wifi[F("pskl")] = strlen(multiWiFi[n].clientPass);
JsonArray wifi_ip = wifi.createNestedArray("ip");
JsonArray wifi_gw = wifi.createNestedArray("gw");
JsonArray wifi_sn = wifi.createNestedArray("sn");
for (size_t i = 0; i < 4; i++) {
wifi_ip.add(multiWiFi[n].staticIP[i]);
wifi_gw.add(multiWiFi[n].staticGW[i]);
wifi_sn.add(multiWiFi[n].staticSN[i]);
}
}
JsonArray dns = nw.createNestedArray(F("dns"));
for (size_t i = 0; i < 4; i++) {
dns.add(dnsAddress[i]);
}
JsonObject ap = root.createNestedObject("ap");
ap[F("ssid")] = apSSID;
ap[F("pskl")] = strlen(apPass);
ap[F("chan")] = apChannel;
ap[F("hide")] = apHide;
ap[F("behav")] = apBehavior;
JsonArray ap_ip = ap.createNestedArray("ip");
ap_ip.add(4);
ap_ip.add(3);
ap_ip.add(2);
ap_ip.add(1);
JsonObject wifi = root.createNestedObject(F("wifi"));
wifi[F("sleep")] = !noWifiSleep;
wifi[F("phy")] = force802_3g;
#ifdef WLED_USE_ETHERNET
JsonObject ethernet = root.createNestedObject("eth");
ethernet["type"] = ethernetType;
if (ethernetType != WLED_ETH_NONE && ethernetType < WLED_NUM_ETH_TYPES) {
JsonArray pins = ethernet.createNestedArray("pin");
for (uint8_t p=0; p<WLED_ETH_RSVD_PINS_COUNT; p++) pins.add(esp32_nonconfigurable_ethernet_pins[p].pin);
if (ethernetBoards[ethernetType].eth_power>=0) pins.add(ethernetBoards[ethernetType].eth_power);
if (ethernetBoards[ethernetType].eth_mdc>=0) pins.add(ethernetBoards[ethernetType].eth_mdc);
if (ethernetBoards[ethernetType].eth_mdio>=0) pins.add(ethernetBoards[ethernetType].eth_mdio);
switch (ethernetBoards[ethernetType].eth_clk_mode) {
case ETH_CLOCK_GPIO0_IN:
case ETH_CLOCK_GPIO0_OUT:
pins.add(0);
break;
case ETH_CLOCK_GPIO16_OUT:
pins.add(16);
break;
case ETH_CLOCK_GPIO17_OUT:
pins.add(17);
break;
}
}
#endif
JsonObject hw = root.createNestedObject(F("hw"));
JsonObject hw_led = hw.createNestedObject("led");
hw_led[F("total")] = strip.getLengthTotal(); //provided for compatibility on downgrade and per-output ABL
hw_led[F("maxpwr")] = BusManager::ablMilliampsMax();
hw_led[F("ledma")] = 0; // no longer used
hw_led["cct"] = correctWB;
hw_led[F("cr")] = cctFromRgb;
hw_led[F("cb")] = strip.cctBlending;
hw_led["fps"] = strip.getTargetFps();
hw_led[F("rgbwm")] = Bus::getGlobalAWMode(); // global auto white mode override
hw_led[F("ld")] = useGlobalLedBuffer;
#ifndef WLED_DISABLE_2D
// 2D Matrix Settings
if (strip.isMatrix) {
JsonObject matrix = hw_led.createNestedObject(F("matrix"));
matrix[F("mpc")] = strip.panels;
JsonArray panels = matrix.createNestedArray(F("panels"));
for (uint8_t i=0; i<strip.panel.size(); i++) {
JsonObject pnl = panels.createNestedObject();
pnl["b"] = strip.panel[i].bottomStart;
pnl["r"] = strip.panel[i].rightStart;
pnl["v"] = strip.panel[i].vertical;
pnl["s"] = strip.panel[i].serpentine;
pnl["x"] = strip.panel[i].xOffset;
pnl["y"] = strip.panel[i].yOffset;
pnl["h"] = strip.panel[i].height;
pnl["w"] = strip.panel[i].width;
}
}
#endif
JsonArray hw_led_ins = hw_led.createNestedArray("ins");
for (uint8_t s = 0; s < BusManager::getNumBusses(); s++) {
Bus *bus = BusManager::getBus(s);
if (!bus || bus->getLength()==0) break;
JsonObject ins = hw_led_ins.createNestedObject();
ins["start"] = bus->getStart();
ins["len"] = bus->getLength();
JsonArray ins_pin = ins.createNestedArray("pin");
uint8_t pins[5];
uint8_t nPins = bus->getPins(pins);
for (uint8_t i = 0; i < nPins; i++) ins_pin.add(pins[i]);
ins[F("order")] = bus->getColorOrder();
ins["rev"] = bus->isReversed();
ins[F("skip")] = bus->skippedLeds();
ins["type"] = bus->getType() & 0x7F;
ins["ref"] = bus->isOffRefreshRequired();
ins[F("rgbwm")] = bus->getAutoWhiteMode();
ins[F("freq")] = bus->getFrequency();
ins[F("maxpwr")] = bus->getMaxCurrent();
ins[F("ledma")] = bus->getLEDCurrent();
}
JsonArray hw_com = hw.createNestedArray(F("com"));
const ColorOrderMap& com = BusManager::getColorOrderMap();
for (uint8_t s = 0; s < com.count(); s++) {
const ColorOrderMapEntry *entry = com.get(s);
if (!entry) break;
JsonObject co = hw_com.createNestedObject();
co["start"] = entry->start;
co["len"] = entry->len;
co[F("order")] = entry->colorOrder;
}
// button(s)
JsonObject hw_btn = hw.createNestedObject("btn");
hw_btn["max"] = WLED_MAX_BUTTONS; // just information about max number of buttons (not actually used)
hw_btn[F("pull")] = !disablePullUp;
JsonArray hw_btn_ins = hw_btn.createNestedArray("ins");
// configuration for all buttons
for (uint8_t i=0; i<WLED_MAX_BUTTONS; i++) {
JsonObject hw_btn_ins_0 = hw_btn_ins.createNestedObject();
hw_btn_ins_0["type"] = buttonType[i];
JsonArray hw_btn_ins_0_pin = hw_btn_ins_0.createNestedArray("pin");
hw_btn_ins_0_pin.add(btnPin[i]);
JsonArray hw_btn_ins_0_macros = hw_btn_ins_0.createNestedArray("macros");
hw_btn_ins_0_macros.add(macroButton[i]);
hw_btn_ins_0_macros.add(macroLongPress[i]);
hw_btn_ins_0_macros.add(macroDoublePress[i]);
}
hw_btn[F("tt")] = touchThreshold;
hw_btn["mqtt"] = buttonPublishMqtt;
JsonObject hw_ir = hw.createNestedObject("ir");
hw_ir["pin"] = irPin;
hw_ir["type"] = irEnabled; // the byte 'irEnabled' does contain the IR-Remote Type ( 0=disabled )
hw_ir["sel"] = irApplyToAllSelected;
JsonObject hw_relay = hw.createNestedObject(F("relay"));
hw_relay["pin"] = rlyPin;
hw_relay["rev"] = !rlyMde;
hw[F("baud")] = serialBaud;
JsonObject hw_if = hw.createNestedObject(F("if"));
JsonArray hw_if_i2c = hw_if.createNestedArray("i2c-pin");
hw_if_i2c.add(i2c_sda);
hw_if_i2c.add(i2c_scl);
JsonArray hw_if_spi = hw_if.createNestedArray("spi-pin");
hw_if_spi.add(spi_mosi);
hw_if_spi.add(spi_sclk);
hw_if_spi.add(spi_miso);
//JsonObject hw_status = hw.createNestedObject("status");
//hw_status["pin"] = -1;
JsonObject light = root.createNestedObject(F("light"));
light[F("scale-bri")] = briMultiplier;
light[F("pal-mode")] = strip.paletteBlend;
light[F("aseg")] = autoSegments;
JsonObject light_gc = light.createNestedObject("gc");
light_gc["bri"] = (gammaCorrectBri) ? gammaCorrectVal : 1.0f; // keep compatibility
light_gc["col"] = (gammaCorrectCol) ? gammaCorrectVal : 1.0f; // keep compatibility
light_gc["val"] = gammaCorrectVal;
JsonObject light_tr = light.createNestedObject("tr");
light_tr["mode"] = fadeTransition;
light_tr["fx"] = modeBlending;
light_tr["dur"] = transitionDelayDefault / 100;
light_tr["pal"] = strip.paletteFade;
light_tr[F("rpc")] = randomPaletteChangeTime;
light_tr[F("hrp")] = useHarmonicRandomPalette;
JsonObject light_nl = light.createNestedObject("nl");
light_nl["mode"] = nightlightMode;
light_nl["dur"] = nightlightDelayMinsDefault;
light_nl[F("tbri")] = nightlightTargetBri;
light_nl["macro"] = macroNl;
JsonObject def = root.createNestedObject("def");
def["ps"] = bootPreset;
def["on"] = turnOnAtBoot;
def["bri"] = briS;
JsonObject interfaces = root.createNestedObject("if");
JsonObject if_sync = interfaces.createNestedObject("sync");
if_sync[F("port0")] = udpPort;
if_sync[F("port1")] = udpPort2;
#ifndef WLED_DISABLE_ESPNOW
if_sync[F("espnow")] = useESPNowSync;
#endif
JsonObject if_sync_recv = if_sync.createNestedObject(F("recv"));
if_sync_recv["bri"] = receiveNotificationBrightness;
if_sync_recv["col"] = receiveNotificationColor;
if_sync_recv["fx"] = receiveNotificationEffects;
if_sync_recv["grp"] = receiveGroups;
if_sync_recv["seg"] = receiveSegmentOptions;
if_sync_recv["sb"] = receiveSegmentBounds;
JsonObject if_sync_send = if_sync.createNestedObject(F("send"));
if_sync_send["en"] = sendNotifications;
if_sync_send[F("dir")] = notifyDirect;
if_sync_send["btn"] = notifyButton;
if_sync_send["va"] = notifyAlexa;
if_sync_send["hue"] = notifyHue;
if_sync_send["grp"] = syncGroups;
if_sync_send["ret"] = udpNumRetries;
JsonObject if_nodes = interfaces.createNestedObject(F("nodes"));
if_nodes[F("list")] = nodeListEnabled;
if_nodes[F("bcast")] = nodeBroadcastEnabled;
JsonObject if_live = interfaces.createNestedObject("live");
if_live["en"] = receiveDirect; // UDP/Hyperion realtime
if_live[F("mso")] = useMainSegmentOnly;
if_live[F("rlm")] = realtimeRespectLedMaps;
if_live["port"] = e131Port;
if_live[F("mc")] = e131Multicast;
JsonObject if_live_dmx = if_live.createNestedObject("dmx");
if_live_dmx[F("uni")] = e131Universe;
if_live_dmx[F("seqskip")] = e131SkipOutOfSequence;
if_live_dmx[F("e131prio")] = e131Priority;
if_live_dmx[F("addr")] = DMXAddress;
if_live_dmx[F("dss")] = DMXSegmentSpacing;
if_live_dmx["mode"] = DMXMode;
if_live[F("timeout")] = realtimeTimeoutMs / 100;
if_live[F("maxbri")] = arlsForceMaxBri;
if_live[F("no-gc")] = arlsDisableGammaCorrection;
if_live[F("offset")] = arlsOffset;
#ifndef WLED_DISABLE_ALEXA
JsonObject if_va = interfaces.createNestedObject("va");
if_va[F("alexa")] = alexaEnabled;
JsonArray if_va_macros = if_va.createNestedArray("macros");
if_va_macros.add(macroAlexaOn);
if_va_macros.add(macroAlexaOff);
if_va["p"] = alexaNumPresets;
#endif
#ifdef WLED_ENABLE_MQTT
JsonObject if_mqtt = interfaces.createNestedObject("mqtt");
if_mqtt["en"] = mqttEnabled;
if_mqtt[F("broker")] = mqttServer;
if_mqtt["port"] = mqttPort;
if_mqtt[F("user")] = mqttUser;
if_mqtt[F("pskl")] = strlen(mqttPass);
if_mqtt[F("cid")] = mqttClientID;
if_mqtt[F("rtn")] = retainMqttMsg;
JsonObject if_mqtt_topics = if_mqtt.createNestedObject(F("topics"));
if_mqtt_topics[F("device")] = mqttDeviceTopic;
if_mqtt_topics[F("group")] = mqttGroupTopic;
#endif
#ifndef WLED_DISABLE_HUESYNC
JsonObject if_hue = interfaces.createNestedObject("hue");
if_hue["en"] = huePollingEnabled;
if_hue["id"] = huePollLightId;
if_hue[F("iv")] = huePollIntervalMs / 100;
JsonObject if_hue_recv = if_hue.createNestedObject(F("recv"));
if_hue_recv["on"] = hueApplyOnOff;
if_hue_recv["bri"] = hueApplyBri;
if_hue_recv["col"] = hueApplyColor;
JsonArray if_hue_ip = if_hue.createNestedArray("ip");
for (byte i = 0; i < 4; i++) {
if_hue_ip.add(hueIP[i]);
}
#endif
JsonObject if_ntp = interfaces.createNestedObject("ntp");
if_ntp["en"] = ntpEnabled;
if_ntp[F("host")] = ntpServerName;
if_ntp[F("tz")] = currentTimezone;
if_ntp[F("offset")] = utcOffsetSecs;
if_ntp[F("ampm")] = useAMPM;
if_ntp[F("ln")] = longitude;
if_ntp[F("lt")] = latitude;
JsonObject ol = root.createNestedObject("ol");
ol[F("clock")] = overlayCurrent;
ol[F("cntdwn")] = countdownMode;
ol["min"] = overlayMin;
ol[F("max")] = overlayMax;
ol[F("o12pix")] = analogClock12pixel;
ol[F("o5m")] = analogClock5MinuteMarks;
ol[F("osec")] = analogClockSecondsTrail;
ol[F("osb")] = analogClockSolidBlack;
JsonObject timers = root.createNestedObject(F("timers"));
JsonObject cntdwn = timers.createNestedObject(F("cntdwn"));
JsonArray goal = cntdwn.createNestedArray(F("goal"));
goal.add(countdownYear); goal.add(countdownMonth); goal.add(countdownDay);
goal.add(countdownHour); goal.add(countdownMin); goal.add(countdownSec);
cntdwn["macro"] = macroCountdown;
JsonArray timers_ins = timers.createNestedArray("ins");
for (byte i = 0; i < 10; i++) {
if (timerMacro[i] == 0 && timerHours[i] == 0 && timerMinutes[i] == 0) continue; // sunrise/sunset get saved always (timerHours=255)
JsonObject timers_ins0 = timers_ins.createNestedObject();
timers_ins0["en"] = (timerWeekday[i] & 0x01);
timers_ins0[F("hour")] = timerHours[i];
timers_ins0["min"] = timerMinutes[i];
timers_ins0["macro"] = timerMacro[i];
timers_ins0[F("dow")] = timerWeekday[i] >> 1;
if (i<8) {
JsonObject start = timers_ins0.createNestedObject("start");
start["mon"] = (timerMonth[i] >> 4) & 0xF;
start["day"] = timerDay[i];
JsonObject end = timers_ins0.createNestedObject("end");
end["mon"] = timerMonth[i] & 0xF;
end["day"] = timerDayEnd[i];
}
}
JsonObject ota = root.createNestedObject("ota");
ota[F("lock")] = otaLock;
ota[F("lock-wifi")] = wifiLock;
ota[F("pskl")] = strlen(otaPass);
ota[F("aota")] = aOtaEnabled;
#ifdef WLED_ENABLE_DMX
JsonObject dmx = root.createNestedObject("dmx");
dmx[F("chan")] = DMXChannels;
dmx[F("gap")] = DMXGap;
dmx["start"] = DMXStart;
dmx[F("start-led")] = DMXStartLED;
JsonArray dmx_fixmap = dmx.createNestedArray(F("fixmap"));
for (byte i = 0; i < 15; i++) {
dmx_fixmap.add(DMXFixtureMap[i]);
}
dmx[F("e131proxy")] = e131ProxyUniverse;
#endif
JsonObject usermods_settings = root.createNestedObject("um");
usermods.addToConfig(usermods_settings);
File f = WLED_FS.open(SET_F("/cfg.json"), "w");
if (f) serializeJson(root, f);
f.close();
releaseJSONBufferLock();
doSerializeConfig = false;
}
//settings in /wsec.json, not accessible via webserver, for passwords and tokens
bool deserializeConfigSec() {
DEBUG_PRINTLN(F("Reading settings from /wsec.json..."));
if (!requestJSONBufferLock(3)) return false;
bool success = readObjectFromFile(PSTR("/wsec.json"), nullptr, pDoc);
if (!success) {
releaseJSONBufferLock();
return false;
}
JsonObject root = pDoc->as<JsonObject>();
size_t n = 0;
JsonArray nw_ins = root["nw"]["ins"];
if (!nw_ins.isNull()) {
if (nw_ins.size() > 1 && nw_ins.size() > multiWiFi.size()) multiWiFi.resize(nw_ins.size()); // resize constructs objects while resizing
for (JsonObject wifi : nw_ins) {
char pw[65] = "";
getStringFromJson(pw, wifi["psk"], 65);
strlcpy(multiWiFi[n].clientPass, pw, 65);
if (++n >= WLED_MAX_WIFI_COUNT) break;
}
}
JsonObject ap = root["ap"];
getStringFromJson(apPass, ap["psk"] , 65);
[[maybe_unused]] JsonObject interfaces = root["if"];
#ifdef WLED_ENABLE_MQTT
JsonObject if_mqtt = interfaces["mqtt"];
getStringFromJson(mqttPass, if_mqtt["psk"], 65);
#endif
#ifndef WLED_DISABLE_HUESYNC
getStringFromJson(hueApiKey, interfaces["hue"][F("key")], 47);
#endif
getStringFromJson(settingsPIN, root["pin"], 5);
correctPIN = !strlen(settingsPIN);
JsonObject ota = root["ota"];
getStringFromJson(otaPass, ota[F("pwd")], 33);
CJSON(otaLock, ota[F("lock")]);
CJSON(wifiLock, ota[F("lock-wifi")]);
CJSON(aOtaEnabled, ota[F("aota")]);
releaseJSONBufferLock();
return true;
}
void serializeConfigSec() {
DEBUG_PRINTLN(F("Writing settings to /wsec.json..."));
if (!requestJSONBufferLock(4)) return;
JsonObject root = pDoc->to<JsonObject>();
JsonObject nw = root.createNestedObject("nw");
JsonArray nw_ins = nw.createNestedArray("ins");
for (size_t i = 0; i < multiWiFi.size(); i++) {
JsonObject wifi = nw_ins.createNestedObject();
wifi[F("psk")] = multiWiFi[i].clientPass;
}
JsonObject ap = root.createNestedObject("ap");
ap["psk"] = apPass;
[[maybe_unused]] JsonObject interfaces = root.createNestedObject("if");
#ifdef WLED_ENABLE_MQTT
JsonObject if_mqtt = interfaces.createNestedObject("mqtt");
if_mqtt["psk"] = mqttPass;
#endif
#ifndef WLED_DISABLE_HUESYNC
JsonObject if_hue = interfaces.createNestedObject("hue");
if_hue[F("key")] = hueApiKey;
#endif
root["pin"] = settingsPIN;
JsonObject ota = root.createNestedObject("ota");
ota[F("pwd")] = otaPass;
ota[F("lock")] = otaLock;
ota[F("lock-wifi")] = wifiLock;
ota[F("aota")] = aOtaEnabled;
File f = WLED_FS.open("/wsec.json", "w");
if (f) serializeJson(root, f);
f.close();
releaseJSONBufferLock();
}
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