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7. ACRouter Command Reference

Version: 1.0.0
Date: 2025-01-15

Complete guide for ACRouter serial terminal and REST API commands.



Table of Contents



General Commands


help

Display complete command reference.

bash
help


status

Show current router status including mode, state, dimmer level, and power consumption.

bash
status

Example output:

text
=== Router Status ===
Mode:    AUTO
State:   INCREASING
Dimmer:  45%
Power:   1250.3 W
Gain:    150.0
Thresh:  50.0 W
=====================



Router Control


router-mode

Set the router operating mode.

Modes:
- off or 0 - Router disabled
- auto or 1 - Solar Router mode (minimize grid import/export)
- eco or 2 - Economic mode (avoid grid import, allow export)
- offgrid or 3 - Offgrid mode (solar/battery autonomous)
- manual or 4 - Manual dimmer control
- boost or 5 - Maximum power routing

Usage:

bash
router-mode auto          # Set auto mode
router-mode manual        # Set manual mode
router-mode               # Show current mode

⚠️ Note: Changes are saved to NVS immediately.


router-dimmer

Control specific dimmer output level.

Parameters:
- ID - Dimmer identifier: 1, 2, or all
- value - Power level (0-100%)

Usage:

bash
router-dimmer 1 75        # Set dimmer 1 to 75%
router-dimmer all 50      # Set all dimmers to 50%
router-dimmer             # Show current level

⚠️ Note: Setting dimmer automatically switches to MANUAL mode.


router-status

Show detailed router status (same as status command).

bash
router-status


router-calibrate

Run power meter calibration routine.

bash
router-calibrate

🚧 Status: Feature under development.


debug-adc

Enable/disable debug logging output from the power meter (PowerMeterADC).

Usage:

bash
debug-adc             # Set debug output period
debug-adc                     # Show current settings

Parameters:

  • - Debug output period in seconds:
  • 0 - Disable debug output
  • >0 - Enable with specified period (e.g., 5 = every 5 seconds)

Examples:

bash
# Enable debug output every 5 seconds
debug-adc 5
# Output: debug-adc = 5 seconds (enabled)

# Disable debug output
debug-adc 0
# Output: debug-adc = DISABLED

# Show current settings
debug-adc
# Output: debug-adc = 5 seconds  (or DISABLED)

Debug Information:

When debug output is enabled, detailed ADC operation information will be logged:

For voltage sensor:

text
VOLTAGE CH0: rms=230.5V, phase=POSITIVE (pos=12345, neg=-11234)

For current sensors:

text
DEBUG CH1 [GPIO39] CURRENT_GRID: dc_avg=2048.3, rms_adc=145.23, vdc=0.512V, amps=25.60
  Phase: current=POSITIVE (pos=13456, neg=-12345), correlation: same=3850, diff=150 -> CONSUMING

Fields:

  • rms - RMS voltage in volts
  • phase - Signal phase (POSITIVE/NEGATIVE/BALANCED)
  • pos/neg - Sum of positive/negative half-periods (for asymmetry diagnostics)
  • dc_avg - Average DC value (should be around 2048 for 12-bit ADC)
  • rms_adc - RMS value in ADC units
  • vdc - Sensor output voltage (V)
  • amps - Measured current (A)
  • same/diff - Voltage-current phase correlation:
  • same > diff → CONSUMING (importing from grid)
  • diff > same → SUPPLYING (exporting to grid)

Applications:

  • Sensor troubleshooting
  • Verify correct current direction detection
  • Analyze signal asymmetry (pos/neg sums)
  • Debug sensor calibration
  • Monitor measurement quality

⚠️ Important: Debug output creates significant load on the Serial port. Use only for diagnostics, disable after troubleshooting.

📝 Note: This setting is NOT saved to NVS. Debug output will be disabled after reboot.



Configuration Management

All configuration commands save values to NVS (Non-Volatile Storage) immediately.


config-show

Display all configuration parameters.

bash
config-show


config-reset

Reset all configuration to factory defaults.

bash
config-reset

⚠️ Warning: This will erase all custom settings.


config-gain [value]

Set control loop gain parameter (affects response speed).

Range: 1-1000 | Default: 150

bash
config-gain 200           # Set gain
config-gain               # Show current gain

Effect: Higher values = faster response, lower values = more stable.


config-threshold [value]

Set balance threshold for auto mode.

Range: 0-100 W | Default: 50 W

bash
config-threshold 30       # Set threshold
config-threshold          # Show current threshold

Effect: Router tries to keep grid power within ±threshold of zero.


config-manual [value]

Set default manual mode dimmer level.

Range: 0-100% | Default: 0%

bash
config-manual 50          # Set manual level
config-manual             # Show current level


config-vcoef [value]

Set voltage calibration coefficient.

Range: 0.1-10.0 | Default: 1.0

bash
config-vcoef 1.05         # Set coefficient
config-vcoef              # Show current value

Effect: Multiplier for voltage measurements (sensor calibration).


config-icoef [value]

Set current measurement coefficient.

Range: 0.1-100.0 A/V | Default: 30.0 A/V

bash
config-icoef 33.0         # Set coefficient
config-icoef              # Show current value

Effect: Converts sensor voltage to current measurement.


config-ithresh [value]

Set current detection threshold.

Range: 0.01-10.0 A | Default: 0.1 A

bash
config-ithresh 0.15       # Set threshold
config-ithresh            # Show current value

Effect: Minimum current to detect active power flow.


config-pthresh [value]

Set power detection threshold.

Range: 1-1000 W | Default: 10 W

bash
config-pthresh 15         # Set threshold
config-pthresh            # Show current value

Effect: Minimum power to detect active consumption/generation.



WiFi Network


wifi-status

Display WiFi connection status, IP addresses, and saved credentials.

bash
wifi-status

Status Fields:
- IDLE - Not initialized
- AP_ONLY - Access Point only
- STA_CONNECTING - Connecting to network
- STA_CONNECTED - Connected as client
- AP+STA - Both AP and STA active
- STA_FAILED - Connection failed

Signal Strength Guide:
- -30 to -50 dBm - Excellent
- -51 to -70 dBm - Good
- -71 to -85 dBm - Fair
- -86 to -100 dBm - Poor


wifi-scan

Scan for available WiFi networks.

bash
wifi-scan


wifi-connect [password]

Connect to WiFi network and save credentials to NVS.

Parameters:
- ssid - Network name (required)
- For SSID with spaces, use double quotes: "My Network"
- password - Network password (optional for open networks)
- For passwords with spaces, use double quotes: "My Pass 123"

Usage:

bash
# Simple connection (no spaces)
wifi-connect MyHomeNetwork MyPassword123
wifi-connect GuestNetwork                    # For open networks

# SSID with spaces (quoted)
wifi-connect "My Home Network" MyPassword123

# Both SSID and password with spaces (both quoted)
wifi-connect "Coffee Shop WiFi" "welcome guest 2024"

Examples:

bash
# Connect to secured network
wifi-connect MyNetwork SecurePass2024
# Output: Connecting to: MyNetwork
#         Password: ***

# Connect to network with spaces in name
wifi-connect "TP-LINK Home" MyPassword
# Output: Connecting to: TP-LINK Home
#         Password: ***

# Connect to open network
wifi-connect PublicWiFi
# Output: Connecting to: PublicWiFi
#         No password (open network)

Behavior:
1. Connects to specified network
2. On success, credentials are automatically saved to NVS
3. On next boot, router will auto-connect
4. AP mode remains active (AP+STA mode)

⚠️ Security Note: Password is transmitted in plaintext over serial.


wifi-disconnect

Disconnect from current STA network (AP remains active).

bash
wifi-disconnect

Effect: Router returns to AP-only mode. Saved credentials remain in NVS.


wifi-forget

Clear saved WiFi credentials from NVS.

bash
wifi-forget

Effect: Router will not auto-connect on next boot. Current connection remains active.



Web Server


web-status

Display web server status, access URLs, and API endpoints.

bash
web-status


web-start

Start the web server.

bash
web-start

Default Ports:
- HTTP: 80
- WebSocket: 81


web-stop

Stop the web server.

bash
web-stop


web-urls

Display all web interface access URLs.

bash
web-urls

Web Pages:
- / - Main control interface (future)
- /wifi - WiFi configuration page
- /ota - Firmware update page



Time Synchronization


time-status

Display NTP time synchronization status.

bash
time-status

Default NTP Servers:
- pool.ntp.org
- time.google.com


time-sync

Force immediate NTP synchronization.

bash
time-sync



OTA Firmware Updates


ota-status

Display OTA update status and access URLs.

bash
ota-status

Update Process:
1. Open OTA URL in web browser
2. Select firmware binary file (.bin)
3. Upload and wait for completion
4. Device will automatically reboot

⚠️ Important: Do not power off or disconnect during update!

Safety Features:
- Critical tasks suspended during update
- Watchdog protection
- Rollback on failure



Hardware Configuration

Commands for voltage and current sensor configuration, NVS version management, and system operations.


Hardware Reset - hardware-reset

Reset hardware configuration to factory defaults (keeps NVS structure).

bash
hardware-reset

Process:

  1. Stops PowerMeterADC to prevent DMA conflicts
  2. Resets all hardware settings to factory defaults
  3. Saves to NVS

Example output:

text
Resetting hardware configuration to factory defaults...
Stopping PowerMeterADC...
Hardware configuration reset successful
IMPORTANT: Reboot required for changes to take effect!
Use 'reboot' command to restart

⚠️ Important: Reboot required after this command (reboot).


Voltage Sensor - hardware-voltage-show

Display current voltage sensor configuration.

bash
hardware-voltage-show

Example output:

text
========== Voltage Sensor ==========
Channel:  0
GPIO:     35
Type:     VOLTAGE_AC
Driver:   ZMPT107
Nominal VDC:  0.700 V
Multiplier:   321.43
Offset:   0.00
Status:   ENABLED
====================================


Voltage Sensor - hardware-voltage-config-type

Set voltage sensor driver type.

bash
hardware-voltage-config-type

Parameters:
- - Sensor type:
- ZMPT107 - ZMPT107 sensor (0.70V RMS nominal)
- ZMPT101B - ZMPT101B sensor (1.0V RMS nominal)
- CUSTOM - Custom sensor

Example:

bash
hardware-voltage-config-type ZMPT107


Voltage Sensor - hardware-voltage-config-port

Set GPIO pin for voltage sensor.

bash
hardware-voltage-config-port GPIO

Parameters:
- - GPIO number (32-39 for ESP32 ADC1)

Example:

bash
hardware-voltage-config-port GPIO35

⚠️ Important: Reboot required after GPIO changes (reboot).


Voltage Sensor - hardware-voltage-calibrate ⭐

Automatic voltage sensor calibration with VDC measurement.

bash
hardware-voltage-calibrate

Parameters:
- - Grid voltage measured with multimeter (VAC RMS)
- Range: 50-300V

Calibration Process:

  1. Measure grid voltage with multimeter (AC RMS mode)
  2. Enter command with measured value
  3. System automatically:
  4. Measures current sensor VDC output (RMS)
  5. Calculates multiplier: multiplier = V_measured / V_sensor
  6. Saves calibrated nominal_vdc and multiplier to NVS
  7. Reboot device (reboot)

Example:

bash
# Multimeter shows 230.5V
hardware-voltage-calibrate 230.5

Output:

text
========== Voltage Calibration ==========
Measuring sensor VDC output...
Measured grid voltage:  230.50 V AC (from multimeter)
Measured sensor VDC:    0.814 V (auto-measured)
Calculated multiplier:  283.17
=========================================

Calibration saved successfully!
Updated:
  - Nominal VDC: 0.814 V
  - Multiplier:  283.17

IMPORTANT: Reboot required for changes to take effect!
Use 'reboot' command to restart

Benefits of Automatic Calibration:

✅ No need to manually adjust sensor potentiometer
✅ Works with any sensor output voltage
✅ Automatically updates nominal_vdc
✅ More accurate and faster

📝 Note: Old method (manually adjusting potentiometer to 0.7V) is no longer required!


Voltage Sensor - hardware-voltage-config-multiplier

Directly set multiplier (for advanced users).

bash
hardware-voltage-config-multiplier

Parameters:
- - Multiplier (0.1-1000)

⚠️ Recommendation: Use hardware-voltage-calibrate instead of manual multiplier setting.



Current Sensors


hardware-current-list

Display all configured current sensors with their bindings.

bash
hardware-current-list

Example output:

text
========== Configured Current Sensors ==========
[CH1] GRID       GPIO39  SCT013-50A    50.00 A/V  Offset: 0.00V
[CH2] SOLAR      GPIO36  SCT013-30A    30.00 A/V  Offset: 0.00V
[CH3] LOAD_1     GPIO34  ACS712-20A    15.15 A/V  Offset: 1.65V
================================================

Fields:

  • CH - ADC channel number (0-3)
  • Binding - Functional role (GRID, SOLAR, LOAD_1..LOAD_8)
  • GPIO - GPIO pin (32-39)
  • Sensor type - Current sensor model
  • A/V - Calibration multiplier
  • Offset - DC offset (for ACS712 sensors)


hardware-current-config GPIO

Configure current sensor: set type, GPIO pin and functional binding.

Parameters:

  • - Functional binding:
  • GRID - Grid connection (import/export)
  • SOLAR - Solar panel
  • LOAD_1, LOAD_2, ... LOAD_8 - Loads 1-8
  • - Sensor type:
  • SCT-013 series (AC current transformers, 0-1V output):
    • SCT013-5A - 0-5A, 1V @ 5A
    • SCT013-10A - 0-10A, 1V @ 10A
    • SCT013-20A - 0-20A, 1V @ 20A
    • SCT013-30A - 0-30A, 1V @ 30A
    • SCT013-50A - 0-50A, 1V @ 50A
    • SCT013-60A - 0-60A, 1V @ 60A
    • SCT013-80A - 0-80A, 1V @ 80A
    • SCT013-100A - 0-100A, 1V @ 100A
  • ACS712 series (Hall effect sensors, 2.5V center @ 5V):
    • ACS712-5A - ±5A
    • ACS712-20A - ±20A
    • ACS712-30A - ±30A
  • CUSTOM - Custom sensor
  • - GPIO number (32-39, ADC1 only)

Usage:

bash
# Configure grid sensor: SCT-013-50A on GPIO39
hardware-current-config GRID SCT013-50A GPIO39

# Configure solar panel: SCT-013-100A on GPIO36
hardware-current-config SOLAR SCT013-100A GPIO36

# Configure load 1: ACS712-20A on GPIO34
hardware-current-config LOAD_1 ACS712-20A GPIO34

Example output:

text
========== Current Sensor Configured ==========
Binding:     GRID
Channel:     1
GPIO:        39
Driver:      SCT013-50A
Nominal:     50.0 A
Multiplier:  50.00
DC Offset:   0.00 V
===============================================

IMPORTANT: Reboot required for changes to take effect!
Use 'reboot' command to restart

NOTE: ACS712 sensors have DC bias (1.65V after divider)
Use 'hardware-current-calibrate-zero GRID' to calibrate zero point

Channel selection algorithm:

The system automatically selects ADC channel by priority:

  1. Priority 1: Channel with matching GPIO (reconfigure existing sensor)
  2. Priority 2: Channel with same binding type (update sensor type)
  3. Priority 3: First free channel (type = NONE)
  4. Priority 4: Any channel with current sensor (migration from old types)

⚠️ Important: Reboot required (reboot) for changes to take effect.


hardware-current-show

Display detailed information about specific current sensor.

Parameters:

  • - Sensor binding (GRID, SOLAR, LOAD_1..LOAD_8)

Usage:

bash
hardware-current-show GRID

Example output:

text
========== Current Sensor Configuration ==========
Binding:     GRID
Channel:     1
GPIO:        39
Driver:      SCT013-50A
Multiplier:  50.00
DC Offset:   0.00 V
Status:      ENABLED
===================================================


hardware-current-delete

Delete current sensor configuration and free ADC channel.

Parameters:

  • - Sensor binding (GRID, SOLAR, LOAD_1..LOAD_8)

Usage:

bash
hardware-current-delete GRID

Example output:

text
Successfully deleted sensor: GRID
  Channel: 1
  GPIO: 39
  Driver: SCT013-50A

Channel is now free and can be reassigned.
IMPORTANT: Reboot required for changes to take effect!

Error (sensor not found):

text
ERROR: No sensor configured for binding: GRID
Use 'hardware-current-list' to see configured sensors


hardware-current-calibrate-zero

Calibrate zero point of current sensor (DC offset compensation).

Parameters:

  • - Sensor binding to calibrate

When to use:

  • After installing a new sensor
  • When readings drift (sensor shows current with no load)
  • After adjusting potentiometer on ACS712 sensor

Calibration process:

  1. IMPORTANT: Disconnect load from sensor (current = 0A)
  2. Enter command
  3. System measures current DC offset
  4. Calculates and saves correcting offset to NVS
  5. Reboot device

Usage:

bash
# Disconnect load from GRID sensor
# Ensure current through sensor = 0A

hardware-current-calibrate-zero GRID

Example output:

text
========== Zero-Point Calibration ==========
Ensure NO current is flowing through sensor!
Measuring DC offset...
NOTICE: Auto-calibration not yet implemented
PowerMeterADC automatically compensates DC offset
Manual adjustment not required in most cases
===========================================

📝 Note:

  • SCT-013: Calibration usually not required (pure AC output)
  • ACS712: Recommended for compensating center point drift (2.5V)
  • PowerMeterADC automatically subtracts DC offset, this command compensates remaining drift


NVS Version - hw-version-show

Display NVS data format version and safe mode status.

bash
hw-version-show

Example output (normal mode):

text
========== NVS Version Info ==========
Firmware version:  2
NVS version:       2
Status:            OK
======================================

Example output (safe mode):

text
========== NVS Version Info ==========
Firmware version:  2
NVS version:       1
Status:            SAFE MODE
Reason:            NVS version mismatch (NVS: 1, Firmware: 2).
                   Use 'hw-erase-nvs' command to reset.
======================================

WARNING: PowerMeterADC is NOT initialized in safe mode!
System will continue with limited functionality:
  - WiFi and WebServer: WORKING
  - Manual dimmer control: WORKING
  - Power measurements: DISABLED

Version History:

  • v1 - Initial version (hardcoded ZMPT107 multiplier)
  • v2 - Added voltage_driver and nominal_vdc fields

📝 Safe mode is automatically activated on version mismatch to prevent system crashes.


NVS Reset - hw-erase-nvs

Completely erase all NVS data and reset to factory defaults.

bash
hw-erase-nvs

Process:

  1. Command will ask for confirmation
  2. Enter YES (in capital letters)
  3. System erases all data from hw_config namespace
  4. Loads factory defaults
  5. Saves settings with current version

Example:

bash
hw-erase-nvs

Output:

text
WARNING: This will erase ALL hardware configuration!
Type 'YES' to confirm (timeout: 10s):
YES

Erasing NVS namespace 'hw_config'...
NVS namespace erased successfully
Factory defaults saved (version 2)
Hardware configuration reset complete!

IMPORTANT: Reboot required!
Use 'reboot' command to restart

⚠️ WARNING: This operation is irreversible! All custom sensor settings and GPIO configurations will be lost.

When to use:

  • Upgrading to new firmware with incompatible NVS format
  • Returning to factory hardware settings
  • Troubleshooting configuration issues


System Reboot - reboot

Restart ESP32.

bash
reboot

Output:

text
Rebooting in 1 second...

📝 Note: Required after:

  • Changing GPIO pins
  • Sensor calibration
  • NVS reset
  • Hardware configuration updates



REST API Reference

⚠️ Note: This section provides a quick reference for REST API endpoints. For integration with web applications, use these endpoints along with the serial commands described above.


Access URLs

Access Point Mode:

python
http://192.168.4.1/api/

Station Mode:

python
http:///api/

Use wifi-status command to find current IP address.


Status & Monitoring

GET /api/status - Complete router status

bash
curl http://192.168.4.1/api/status

GET /api/metrics - Power metrics (lightweight, for polling)

bash
curl http://192.168.4.1/api/metrics

GET /api/config - All configuration parameters

bash
curl http://192.168.4.1/api/config

GET /api/info - System information

bash
curl http://192.168.4.1/api/info


Configuration

POST /api/config - Update configuration

bash
curl -X POST http://192.168.4.1/api/config \
  -H "Content-Type: application/json" \
  -d '{"control_gain": 200, "balance_threshold": 30}'

POST /api/config/reset - Reset to factory defaults

bash
curl -X POST http://192.168.4.1/api/config/reset


Router Control

POST /api/mode - Set operating mode

Valid modes: off, auto, eco, offgrid, manual, boost

bash
# Set AUTO mode (Solar Router)
curl -X POST http://192.168.4.1/api/mode \
  -H "Content-Type: application/json" \
  -d '{"mode": "auto"}'

# Set ECO mode (Economic, avoid import)
curl -X POST http://192.168.4.1/api/mode \
  -H "Content-Type: application/json" \
  -d '{"mode": "eco"}'

# Set OFFGRID mode (Autonomous solar/battery)
curl -X POST http://192.168.4.1/api/mode \
  -H "Content-Type: application/json" \
  -d '{"mode": "offgrid"}'

POST /api/dimmer - Set dimmer level (switches to MANUAL mode)

bash
curl -X POST http://192.168.4.1/api/dimmer \
  -H "Content-Type: application/json" \
  -d '{"value": 75}'

POST /api/manual - Set manual level (alternative endpoint)

bash
curl -X POST http://192.168.4.1/api/manual \
  -H "Content-Type: application/json" \
  -d '{"value": 50}'


WiFi Management

GET /api/wifi/status - WiFi status and IP addresses

bash
curl http://192.168.4.1/api/wifi/status

GET /api/wifi/scan - Scan for networks

bash
curl http://192.168.4.1/api/wifi/scan

POST /api/wifi/connect - Connect to network (saves to NVS)

bash
curl -X POST http://192.168.4.1/api/wifi/connect \
  -H "Content-Type: application/json" \
  -d '{"ssid": "MyNetwork", "password": "MyPassword"}'

POST /api/wifi/disconnect - Disconnect from STA network

bash
curl -X POST http://192.168.4.1/api/wifi/disconnect

POST /api/wifi/forget - Clear saved credentials from NVS

bash
curl -X POST http://192.168.4.1/api/wifi/forget


Web API Usage Examples

Python (requests):

python
import requests

base = "http://192.168.4.1/api"

# Get status
status = requests.get(f"{base}/status").json()
print(f"Mode: {status['mode']}, Dimmer: {status['dimmer']}%")

# Set ECO mode
requests.post(f"{base}/mode", json={"mode": "eco"})

# Update gain
requests.post(f"{base}/config", json={"control_gain": 250})

# Monitor metrics (polling)
import time
while True:
    metrics = requests.get(f"{base}/metrics").json()
    print(f"Grid: {metrics['metrics']['power_grid']}W")
    time.sleep(2)

JavaScript (Fetch):

javascript
const base = "http://192.168.4.1/api";

// Get status
fetch(`${base}/status`)
  .then(r => r.json())
  .then(d => console.log(`Mode: ${d.mode}, Dimmer: ${d.dimmer}%`));

// Set OFFGRID mode
fetch(`${base}/mode`, {
  method: 'POST',
  headers: {'Content-Type': 'application/json'},
  body: JSON.stringify({mode: 'offgrid'})
});

// Polling metrics every 2 seconds
setInterval(() => {
  fetch(`${base}/metrics`)
    .then(r => r.json())
    .then(d => console.log(`Grid: ${d.metrics.power_grid}W`));
}, 2000);

Bash (curl + jq):

bash
BASE="http://192.168.4.1/api"

# Get status (formatted with jq)
curl -s "$BASE/status" | jq .

# Set AUTO mode
curl -X POST "$BASE/mode" \
  -H "Content-Type: application/json" \
  -d '{"mode": "auto"}'

# Monitor loop
while true; do
  curl -s "$BASE/metrics" | jq '.metrics'
  sleep 5
done



Quick Start Examples


Initial Setup

bash
# Check status
status

# Scan for WiFi networks
wifi-scan

# Connect to WiFi (credentials saved to NVS)
wifi-connect MyNetwork MyPassword

# Check WiFi status
wifi-status

# Set router to auto mode
router-mode auto

# Adjust gain for faster response
config-gain 200


Manual Control

bash
# Switch to manual mode
router-mode manual

# Set dimmer to 50%
router-dimmer 1 50

# Set all dimmers to 100%
router-dimmer all 100

# Return to auto mode
router-mode auto


Troubleshooting

bash
# Check all systems
status
wifi-status
web-status
time-status

# Reset configuration if needed
config-reset

# Reconnect WiFi
wifi-connect MyNetwork MyPassword

# Force time sync
time-sync

# Restart web server
web-stop
web-start



Notes


Command Format

  • Commands are case-insensitive
  • Parameters are space-separated


Data Persistence

  • All config-* commands save to NVS immediately
  • WiFi credentials saved automatically on successful connection
  • Settings persist across reboots


Safety Features

  • Dimmer limits: 0-100%
  • Parameter range validation
  • Watchdog protection during OTA
  • Critical task suspension during updates


Web Interface

  • Access via any browser
  • Responsive design for mobile
  • Real-time status updates
  • No authentication (use firewall rules)



Related Documentation

Firmware Version: 1.0.0
Last Updated: 2025-01-15

Table of Contents General Commands Router Control Configuration Management WiFi Network Web Server Time Synchronization OTA Firmware Updates Hardware Configuration Current Sensors REST API Reference Quick Start Examples Notes Related Documentation