DrozmotiX-OSS | OpenSource support für SmartHome Lösungen

# YAML Vorlagen

Um euch den einstieg in ESPHome zu erleichtern findet ihr hier, mit grossen dank an fleissiegen Helfern, einige Beispiele fuer weit verbreitete geraete.

Achtung

Es extrem wichtig die Einstellungen zu überprüfen, wenn man etwas in der eigentlichen YAML-Konfiguration vergisst, kann es leider passieren das man sich erst einmal vom Gerät ausschließt.

# SECRETS.YAML

Die "SECRETS.YAML" ermöglicht es dir, oft genutzte Konfigurationen schnell und effizient zu hinterlegen. Die meisten Einstellungen wiederholen sich für die meisten Module, z.B. WLAN SSID, WLAN Passwörter, API Zugang etc. Darum sollten die wichtigsten Einstellungen direkt dort hinterlegt werden, so läuft man nicht direkt Gefahr etwas vergessen zu haben.

Kann ich die Einstellungen nicht auch in der YAML-Konfiguration direkt vornehmen?

Selbstverständlich! - ABER: Du musst dann in jeder Konfiguration die richtigen Einstellungen immer und immer wieder eintragen.
Ist es nicht schöner einfach ein paar grundsätzliche Sachen schnell per Copy+Paste in der Konfiguration einzufügen?

SECRETS.YAML Vorlage anzeigen

WARNING

Folgende Punkte SOLLTEN auf jeden Fall in eurer SECRETS.YAML vor dem flashen zu finden sein:

# Over The Air
ota_password: "esphomeota"          # Passwort um per "Over-the-Air" ein Update durchführen zu können

# API Access
api_password: "esphomeapi"              # Passwort zum aktivieren der ESPHome API, zur Steuerung z.b. über IOBroker, Logging etc.

# WiFi
wifi_ssid:        "SSID eures WLANs"                    # Damit verbinden sich eure ESP Home Devices beim Reboot
wifi_password:    "PASSWORT eures WLANs"    # das Passwort gehört zur gewünschten SSID
ip_gateway:       192.168.0.254                        # Falls ihr manuelle IPs vergeben wollt, können hier die grundlegenden
ip_netmask:       255.255.255.0                           # Konfigurationen vorgenommen werden. Diese stehen dann in den Configs
ip_dns_1:         8.8.8.8                                       # als Platzhalter zur Verfügung.
ip_dns_2:         192.168.0.254                            
ip_domain:        .local

OPTIONAL

In einigen der Vorlagen findet Ihr Informationen für die manuelle IP Vergabe. An dieser Stelle wird eine kurze Übersicht gezeigt, wie man sich schnell und übersichtlich seine Geräte einpflegen kann. Es müssen bei der Verwendung dann nur minimale Änderungen in der eigentlichen YAML-Konfiguration vorgenommen werden.

# Device-List Gosund SP1
IP-Konfiguration            IP                     # Device-Name           Kommentar
ip_gosund_sp1_1:      192.168.0.41   # Gosund_SP1_1      - Laserdrucker
ip_gosund_sp1_2:      192.168.0.42   # Gosund_SP1_2      - 3D Drucker
ip_gosund_sp1_3:      192.168.0.43   # Gosund_SP1_3      - Reserve #3
ip_gosund_sp1_4:      192.168.0.44   # Gosund_SP1_4      - Reserve #4

# Device-List Gosund SP112
ip_gosund_sp112_1:    192.168.0.40   # Gosund_SP112_1    - PC/USV
ip_gosund_sp112_2:    192.168.0.45   # Gosund_SP112_2    - Reserve

# Device-List Blitzwolf SHP7
ip_blitzwolf_shp7_1:  192.168.0.31   # Blitzwolf_SHP7_1  - Reserve
ip_blitzwolf_shp7_2:  192.168.0.32   # Blitzwolf_SHP7_2  - Reserve

OPTIONAL

An erster Stelle ist der Platzhalter für die Konfiguration, dann folgt die manuelle IP-Zuweisung für das Gerät. Zur Vereinfachung nutzen wir das # - Zeichen als Kommentar und tragen dort ggf. noch den Friendly-Name des Moduls sowie eine sinnvolle Bezeichnung ein.

# FAQ

# api:

Eine der wichtigsten Einstellungen überhaupt. Diese ermöglicht den Zugriff auf das Modul zur Steuerung, ohne diese interne Modul-API macht das ESPHome keinen Sinn.

# ota:

Ebenfalls eine sehr wichtige Einstellung. Diese ermöglicht den Zugriff auf das Modul zum updaten "Over-The-Air (OTA)". Das Modul erlaubt das ändern der Konfiguration (Updates, neue Features etc.) über einen direkten Upload zum Modul.

# substitutions

device_id - Das ist die sogenannte "Unique-ID", ein einmaliges Erkennungszeichen für das Modul. Nur Kleinschreibung, keine Sonderzeichen (außer _ Unterstrich) ! device_name - Der Name der in diversen Kategorien erscheint (z.b. IoBroker). Nur Kleinschreibung, keine Sonderzeichen (außer _ Unterstrich)! friendly_name - Der Name für das Modul zur schnellen Identifizierung - Hier ist Groß- und Kleinschreibung, sowie _ Unterstrich und - Minus erlaubt 😃

Unter Substitutions finden sich manchmal auch current_res und voltage_div?

  • current_res:
    Die Faktor-Berechnung für den Stromverbrauch im Watt Bereich. Die Kalibrierung ist individuell für jedes Modul anzupassen. Die Werte weichen bei jedem Modul mitunter massiv ab, es gibt keine groben Richtwerte. Wenn eure Watt-Werte zu hoch sind, dann ist der Wert nach oben (!) zu korrigieren (Beispiel: 10 Watt werden genutzt, die Messung zeigt 15 Watt an, dann den Wert nach oben korrigieren) Wenn eure Watt-Werte zu niedrig sind, dann ist der Wert nach unten (!) zu korrigieren. (Beispiel: 10 Watt werden genutzt, die Messung zeigt 8 Watt an, dann den Wert nach unten korrigieren)

  • voltage_div: Die Faktor-Berechnung für die Spannungmessung. Wenn eure Volt-Werte zu hoch sind, dann ist der Wert nach oben zu korrigieren (Beispiel: 226V an der Steckdose, die Messung zeigt 240V, dann den Wert nach unten korrigieren) Wenn eure Volt-Werte zu niedrig sind, dann ist der Wert nach unten zu korrigieren (Beispiel: 226V an der Steckdose, die Messung zeigt 220V, dann den Wert nach oben korrigieren)

Kalibrierung

Eine 100%-tige Kalibrierung ist sehr aufwendig und mit herkömmlichen Messgeräten kaum zu ermitteln. Dennoch lassen sich die Module auf einen relativ genauen Wert justieren. Dazu einfach mit einem Wert anfangen (z.b. "current_res") und euer Modul per Upload neu flashen. Zur Ermittlung sollte man ein adequates Messgerät benutzen und ein Gerät was eine relativ konstante Leistung abgibt (z.b 60 Watt Glühbirne oder ähnliches). Danach auf die gleiche Weise mit (z.b. "voltage_div") vorgehen. Immer daran denken - es kann und wird im Leistungsbereich immer mal Abweichungen geben. Die Messungen erfolgen nicht in Echtzeit in den Modulen und es gibt immer Toleranzen in den Chips.

ADVANCED USERS

Ein englisches Tutorial findet ihr unter: Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/

# BLITZWOLF

# SHP7

Vorlage anzeigen 
####
#
# Configuration File for BLITZWOLF SHP7 (Dual Plug)
# - If you switch from Tasmota - check if you have HLW8012 in your template then this config can be used.
#
# Notices:
# ========
# - There are different versions of SP112 / SHP5, they differ with other GPIO-Pinouts and other sensor platforms!
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
# To finetune your wattage/voltage measurement, check the substitutions "current_res / voltage_div"
#
# Builddate: 14.04.2021 by X-R4Y
#
####
substitutions:
device_id:      blitzwolf_shp7  # Device-ID Unique (only lowercase!)
device_name:    blitzwolf_shp7  # Device-Type for Category (only lowercase!)
friendly_name:  blitzwolf_shp7  # Device-Name for Channel (Lower-/Uppercase allowed)
current_res:    '0.001906'        # Higher value gives lower watt readout (Default 0.001906)
voltage_div:    '912'             # Lower value gives lower voltage readout (Default 912 ~ 226V)

esphome:
name: $device_name
platform: ESP8266
arduino_version: 2.5.1
board: esp8285

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on                  # Useful if WIFI-SSID is hidden

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_blitzwolf_shp7
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

logger:
baud_rate: 0

api:
password: !secret api_password

ota:
password: !secret ota_password

sensor:
- platform: hlw8012
  sel_pin:
  number: GPIO03
  inverted: true
  cf_pin: GPIO04
  cf1_pin: GPIO05
  current_resistor: ${current_res}
  voltage_divider: ${voltage_div}

  current:
  id: current
  name: ${friendly_name}_Current
  unit_of_measurement: 'A'
  accuracy_decimals: 3

  voltage:
  id: voltage
  name: ${friendly_name}_Voltage
  unit_of_measurement: 'V'
  accuracy_decimals: 1

  power:
  id: wattage
  name: ${friendly_name}_Power
  unit_of_measurement: W
  accuracy_decimals: 2
  filters:
  - lambda: return (x / 2.2);
  change_mode_every: 4
  update_interval: 10s

  energy:
  name: ${friendly_name}_Energy
  unit_of_measurement: "Wh"

- platform: total_daily_energy
  power_id: wattage
  name: ${friendly_name}_Daily_Energy
  unit_of_measurement: kWh
  filters:
  # Multiplication factor from W to kW is 0.001
  - multiply: 0.001

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  id: uptime_sensor
  name: ${friendly_name}_Uptime_Information
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
- platform: gpio
  id: hw_button1
  name: hw_button1
  internal: true
  pin:
  number: GPIO0
  mode: INPUT_PULLUP
  inverted: true
  on_press:
  - switch.toggle: relay1

- platform: gpio
  id: hw_button2
  name: hw_button2
  internal: true
  pin:
  number: GPIO12
  mode: INPUT_PULLUP
  inverted: true
  on_press:
  - switch.toggle: relay2

output:
- platform: esp8266_pwm
  id: red_led1
  pin:
  number: GPIO13
  inverted: true
- platform: esp8266_pwm
  id: red_led2
  pin:
  number: GPIO2
  inverted: true

switch:
- platform: gpio
  pin: GPIO14
  id: relay1
  name: ${friendly_name}_Relay_1
  on_turn_on:
  - output.turn_on: red_led1
    on_turn_off:
  - output.turn_off: red_led1
- platform: gpio
  pin: GPIO16
  id: relay2
  name: ${friendly_name}_Relay_2
  on_turn_on:
  - output.turn_on: red_led2
    on_turn_off:
  - output.turn_off: red_led2

- platform: template
  id: relay_combined
  name: ${friendly_name}_Combined_Relay
  optimistic: true
  turn_off_action:
  - output.turn_off: red_led1
  - output.turn_off: red_led2
  - switch.turn_off: relay1
  - switch.turn_off: relay2
    turn_on_action:
  - output.turn_on: red_led1
  - output.turn_on: red_led2
  - switch.turn_on: relay1
  - switch.turn_on: relay2

# ==============
# !!! Notice !!!
# ==============
# If enabled, the Blue LED will flash while transmitting data (Power Measuring, Statusmessages and such stuff)
# If disabled, you wont get any error flashings on the LED from the plug. (Default)
# To enable the status LED feature put # in front of the following 4 lines
#status_led:
#  pin:
#    number: GPIO01
#    inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# Gosund

# SP1

Vorlage anzeigen 
####
#
# Configuration File for GOSUND SP1
# - If you switch from Tasmota - check if you have HLW8012 in your template then this config can be used.
#
# Notices:
# ========
# - There are different versions of SP1, they differ with other GPIO-Pinouts and other sensor platforms!
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
# To finetune your wattage/voltage measurement, check the substitutions "current_res / voltage_div"
#
# Builddate: 14.04.2021 by X-R4Y
#
####
substitutions:
device_id:      gosund_sp1      # Device-ID Unique
device_name:    gosund_sp1  # Device-Type for Category
friendly_name:  gosund_sp1 # Device-Name for Channel
current_res:    '0.001906'        # Higher value gives lower watt readout (Default 0.001906)
voltage_div:    '960'             # Lower value gives lower voltage readout

esphome:
name: $device_name
platform: ESP8266
board: esp8285

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_gosund_sp1
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

logger:
# https://esphome.io/components/logger

api:
password: !secret api_password

ota:
password: !secret ota_password

sensor:
- platform: hlw8012
  # https://esphome.io/components/sensor/hlw8012.html
  # current, power, voltage can all use sensor options https://esphome.io/components/sensor/#config-sensor
  sel_pin:
  number: GPIO12
  inverted: True
  cf_pin: GPIO5
  cf1_pin: GPIO14

  current:
  name: ${friendly_name}_Current
  unit_of_measurement: A
  accuracy_decimals: 3

  power:
  name: ${friendly_name}_Power
  id: power_monitor_value
  unit_of_measurement: W
  accuracy_decimals: 2
  filters:
  - lambda: return (x / 2.2);

  voltage:
  name: ${friendly_name}_Voltage
  unit_of_measurement: V
  accuracy_decimals: 2
  current_resistor: $current_res
  voltage_divider: $voltage_div
  change_mode_every: 5            # default 8
  update_interval: 15s            # default 60s

  energy:
  name: ${friendly_name}_Energy
  unit_of_measurement: "Wh"

- platform: total_daily_energy
  name: ${friendly_name}_Total_Daily_Energy
  power_id: power_monitor_value
  filters:
  - multiply: 0.001         # convert Wh to kWh
    unit_of_measurement: kWh

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  name: ${friendly_name}_Uptime_Information
  id: uptime_sensor
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
# Hardware Button at plug to turn on/off relay manually
- platform: gpio
  pin:
  number: GPIO13
  id: button
  name: ${friendly_name}_Button
  on_press:
  - switch.toggle: relay_template
    internal: True

output:
# Hardware LEDs: Blue and Red, triggering on different states
- platform: gpio
  id: red_led_output    # Status LED RED
  pin:
  number: GPIO0
  inverted: True

- platform: gpio
  id: blue_led_output   # Status LED BLUE
  pin:
  number: GPIO2
  inverted: True

switch:
# Hardware Relay: Relay that triggers the output plug
- platform: gpio
  pin: GPIO15
  id: relay

- platform: template
  name: ${friendly_name}_Relay
  id: relay_template
  lambda: |-
  if (id(relay).state) {
  return true;
  } else {
  return false;
  }
  turn_on_action:
  - output.turn_on: blue_led_output   # Turns on blue LED while relay on
  - output.turn_off: red_led_output   # Turns off red LED while relay on
  - switch.turn_on: relay             # Turns relay on
    turn_off_action:
  - output.turn_off: blue_led_output  # Turns off blue LED while relay off
  - output.turn_on: red_led_output    # Turns on red LED while relay off
  - switch.turn_off: relay            # Turns relay off

# ==============
# !!! Notice !!!
# ==============
# If enabled, the Red LED will not light up while relay is in off-state!
# To disable the status LED feature put # in front of the following 4 lines
# If disabled, you wont get any error flashings on the LED from the plug.
#status_led:
#  pin:
#    number: GPIO0                         # Default: RED GPIO0 / BLUE GPIO2
#    inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# SP111

Vorlage anzeigen 
####
#
# Configuration File for GOSUND SP111
#
# Notices:
# ========
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
# To finetune your wattage/voltage measurement, check the substitutions "current_res / voltage_div"
#
# Builddate: 14.04.2021 by X-R4Y
#
####
substitutions:
device_id:      gosund_sp111      # Device-ID Unique
device_name:    gosund_sp111      # Device-Type for Category
friendly_name:  gosund_sp111      # Device-Name for Channel
current_res:    '0.0012'          # Higher value gives lower watt readout (Default 0.0012)
voltage_div:    '777'             # Lower value gives lower voltage readout

esphome:
name: $device_name
platform: ESP8266
board: esp8285

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_gosund_sp1_1
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

logger:
# https://esphome.io/components/logger

api:
password: !secret api_password

ota:
password: !secret ota_password

sensor:
- platform: hlw8012
  # https://esphome.io/components/sensor/hlw8012.html
  # current, power, voltage can all use sensor options https://esphome.io/components/sensor/#config-sensor
  sel_pin:
  number: GPIO12
  inverted: True
  cf_pin: GPIO5
  cf1_pin: GPIO14

  current:
  name: ${friendly_name}_Current
  unit_of_measurement: A
  accuracy_decimals: 3

  power:
  name: ${friendly_name}_Power
  id: power_monitor_value
  unit_of_measurement: W
  accuracy_decimals: 2
#      filters:
#      - multiply: 0.5
      filters:
        - lambda: return (x / 2.2);

    voltage:
      name: ${friendly_name}_Voltage
      unit_of_measurement: V
      accuracy_decimals: 2
    current_resistor: $current_res
    voltage_divider: $voltage_div
    change_mode_every: 3            # default 10
    update_interval: 10s            # default 60s

    energy:
      name: ${friendly_name}_Energy
      unit_of_measurement: "Wh"

- platform: total_daily_energy
  name: ${friendly_name}_Total_Daily_Energy
  power_id: power_monitor_value
  filters:
  - multiply: 0.001         # convert Wh to kWh
    unit_of_measurement: kWh

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  name: ${friendly_name}_Uptime_Information
  id: uptime_sensor
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
# Hardware Button at plug to turn on/off relay manually
- platform: gpio
  pin:
  number: GPIO13
  inverted: true
  id: button
  name: ${friendly_name}_Button
  on_press:
  - switch.toggle: relay_template
    internal: True

output:
# Relay state led
- platform: esp8266_pwm
  id: state_led
  pin:
  number: GPIO2
  inverted: true

light:
# Relay state light
- platform: monochromatic
  output: state_led
  id: led

switch:
# Hardware Relay: Relay that triggers the output plug
- platform: gpio
  pin: GPIO15
  id: relay

- platform: template
  name: ${friendly_name}_Relay
  id: relay_template
  lambda: |-
  if (id(relay).state) {
  return true;
  } else {
  return false;
  }
  turn_on_action:
  - light.turn_on: led      # Turns on blue LED while relay on
  - switch.turn_on: relay   # Turns relay on
    turn_off_action:
  - light.turn_off: led     # Turns off blue LED while relay off
  - switch.turn_off: relay  # Turns relay off

# ==============
# !!! Notice !!!
# ==============
# To disable the status LED feature put # in front of the following 4 lines
# If disabled, you wont get any error flashings on the LED from the plug.
status_led:
pin:
number: GPIO0                         # Default: RED GPIO0 / BLUE GPIO2
inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# SP112 BL0937

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####
#
# Configuration File for GOSUND SP112 / BLITZWOLF SHP5
# - If you switch from Tasmota - check if you have BL0937 on GPIO5, then this config can be used.
#
# Notices:
# ========
# - There are different versions of SP112 / SHP5, they differ with other GPIO-Pinouts and other sensor platforms!
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
#
# Builddate: 14.04.2021 by X-R4Y
#
####

substitutions:
device_id:      gosund_sp112  # Device-ID Unique (only lowercase!)
device_name:    gosund_sp112  # Device-Type for Category (only lowercase!)
friendly_name:  gosund_sp112  # Device-Name for Channel (Lower-/Uppercase allowed)

esphome:
name: $device_name
platform: ESP8266
arduino_version: 2.5.1
board: esp01_1m

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_gosund_sp112_1
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

api:
password: !secret api_password

ota:
password: !secret ota_password

logger:           # Reduce log level as otherwise logs would be flooded with analog sensor readings
logs:
sensor: ERROR # Options INFO / WARN / ERROR
adc: ERROR    # Options INFO / WARN / ERROR

sensor:
- platform: adc
  id: button_adc
  pin: A0
  update_interval: .1s
- platform: hlw8012
  sel_pin:
  number: GPIO12
  inverted: True
  cf_pin: GPIO05
  cf1_pin: GPIO04
  current:
  id: current
  name: ${friendly_name}_Current
  unit_of_measurement: A
  accuracy_decimals: 3

  voltage:
  id: voltage
  name: ${friendly_name}_Voltage
  unit_of_measurement: V
  accuracy_decimals: 1

  power:
  id: wattage
  name: ${friendly_name}_Power
  unit_of_measurement: W
  accuracy_decimals: 2
  filters:
  - lambda: return (x / 2.2);

- platform: total_daily_energy
  power_id: wattage
  name: ${friendly_name}_Daily_Energy
  unit_of_measurement: kWh
  filters:
  # Multiplication factor from W to kW is 0.001
  - multiply: 0.001

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  id: uptime_sensor
  name: ${friendly_name}_Uptime_Information
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
- platform: template
  id: hardwarebutton
  # read analog sensor and convert it's value to binary state
  lambda: return (id(button_adc).state < .5);
  on_click:
  - min_length: 10ms        # short button press toggles mains (< 250ms)
    max_length: 250ms
    then:
    - switch.toggle: switch_voltage
  - min_length: 500ms       # long button press toggles USB (> 500ms up to 2 seconds)
    max_length: 2000ms
    then:
    - switch.toggle: switch_usb

output:
- platform: gpio
  id: red_led_output            # Red LED
  pin:
  number: GPIO00
  inverted: true

- platform: gpio
  id: blue_led_output           # Blue LED
  pin:
  number: GPIO02
  inverted: true

switch:
- platform: gpio
  name: ${friendly_name}_Relay_Voltage
  id: switch_voltage
  pin: GPIO14
  #inverted: true               # Some devices need this to be enabled
  on_turn_on:
  output.turn_on: red_led_output
  on_turn_off:
  output.turn_off: red_led_output

- platform: gpio
  name: ${friendly_name}_Relay_USB
  id: switch_usb
  pin: GPIO13
  inverted:  true
  on_turn_on:
  output.turn_on: blue_led_output
  on_turn_off:
  output.turn_off: blue_led_output

# ==============
# !!! Notice !!!
# ==============
# Enabled: the Red LED will not light up while relay is in off-state!
# Disabled: you wont get any error flashings on the LED from the plug.
# To disable the status LED feature put # in front of the following 4 lines
status_led:
pin:
number: GPIO2                         # Default: RED GPIO0 / BLUE GPIO2
inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# SP112 CSE7766

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####
#
# Configuration File for GOSUND SP112 / BLITZWOLF SHP5
# - If you switch from Tasmota - check if you have CSE7766 in your template then this config can be used.
#
# Notices:
# ========
# - There are different versions of SP112 / SHP5, they differ with other GPIO-Pinouts and other sensor platforms!
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
#
# Builddate: 14.04.2021 by X-R4Y
#
####

substitutions:
device_id:      gosund_sp112    # Device-ID Unique (only lowercase)
device_name:    gosund_sp112    # Device-Type for Category (only lowercase!)
friendly_name:  gosund_sp112    # Device-Name for Channel (Lower-/Uppercase allowed)

esphome:
name: $device_name
platform: ESP8266
board: esp8285

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_gosund_sp112_1
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

api:
password: !secret api_password

ota:
password: !secret ota_password

logger:           # Reduce log level as otherwise logs would be flooded with analog sensor readings
logs:
sensor: ERROR # Options INFO / WARN / ERROR
adc: ERROR    # Options INFO / WARN / ERROR

uart:
rx_pin: RX
baud_rate: 4800

sensor:
- platform: cse7766
  current:
  id: current
  name: ${friendly_name}_Current
  unit_of_measurement: A
  accuracy_decimals: 3

  voltage:
  id: voltage
  name: ${friendly_name}_Voltage
  unit_of_measurement: V
  accuracy_decimals: 1

  power:
  id: wattage
  name: ${friendly_name}_Power
  unit_of_measurement: W
  accuracy_decimals: 2
  filters:
  - lambda: return (x / 2.2);

- platform: total_daily_energy
  power_id: wattage
  name: ${friendly_name}_Daily_Energy
  unit_of_measurement: kWh
  filters:
  # Multiplication factor from W to kW is 0.001
  - multiply: 0.001

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  id: uptime_sensor
  name: ${friendly_name}_Uptime_Information
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
# Binary sensor for the hardware button press
- platform: gpio
  name: ${friendly_name}_button
  id: relay
  pin:
  number: GPIO16
  inverted: true
  internal: True
  on_press:
  - switch.toggle: switch_usb
  - switch.toggle: switch_voltage

output:
- platform: gpio
  id: red_led_output            # Red LED
  pin:
  number: GPIO00
  inverted: true

- platform: gpio
  id: blue_led_output           # Blue LED
  pin:
  number: GPIO02
  inverted: true

switch:
- platform: gpio
  name: ${friendly_name}_Relay_Voltage
  id: switch_voltage
  pin:
  number: GPIO14
#    inverted: true
on_turn_on:
output.turn_on: red_led_output
on_turn_off:
output.turn_off: red_led_output

- platform: gpio
  name: ${friendly_name}_Relay_USB
  id: switch_usb
  pin: GPIO5
  #inverted:  true
  on_turn_on:
  output.turn_on: blue_led_output
  on_turn_off:
  output.turn_off: blue_led_output

# ==============
# !!! Notice !!!
# ==============
# Enabled: the Red LED will not light up while relay is in off-state!
# Disabled: you wont get any error flashings on the LED from the plug.
# To disable the status LED feature put # in front of the following 4 lines
status_led:
pin:
number: GPIO2                         # Default: RED GPIO0 / BLUE GPIO2
inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# Teckin

# SP10

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####
#
# Configuration File for TECKIN-SP10
#
# Notices:
# ========
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Builddate: 14.04.2021 by X-R4Y
#
####
substitutions:
device_id:      teckin_sp10   # Device-ID Unique
device_name:    teckin_sp10   # Device-Type for Category
friendly_name:  teckin_sp10   # Device-Name for Channel

esphome:
name: $device_name
platform: ESP8266
board: esp01_1m
esp8266_restore_from_flash: true

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_gosund_sp1
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

logger:
# https://esphome.io/components/logger

api:
password: !secret api_password

ota:
password: !secret ota_password

sensor:
- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  name: ${friendly_name}_Uptime_Information
  id: uptime_sensor
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
# Hardware Button at plug to turn on/off relay manually
- platform: gpio
  pin:
  number: GPIO13
  id: button
  name: ${friendly_name}_Button
  on_press:
  - switch.toggle: relay_template
    internal: True

output:
# https://esphome.io/components/output/esp8266_pwm.html
- platform: esp8266_pwm
  id: blue_led_output
  pin:
  number: GPIO2
  inverted: True

light:
# https://esphome.io/components/light/monochromatic.html
- platform: monochromatic
  name: blue_led
  output: blue_led_output
  id: blue_led
  default_transition_length: 1ms # default 1s
  internal: True

switch:
# Hardware Relay: Relay that triggers the output plug
- platform: gpio
  pin: GPIO15
  id: relay

- platform: template
  name: ${friendly_name}_Relay
  id: relay_template
  lambda: |-
  if (id(relay).state) {
  return true;
  } else {
  return false;
  }
  turn_on_action:
  - light.turn_on: blue_led   # Turns on blue LED while relay on
  - switch.turn_on: relay     # Turns relay on
    turn_off_action:
  - light.turn_off: blue_led  # Turns off blue LED while relay off
  - switch.turn_off: relay    # Turns relay off

# ==============
# !!! Notice !!!
# ==============
# If enabled, the Red LED will not light up while relay is in off-state!
# To disable the status LED feature put # in front of the following 4 lines
# If disabled, you wont get any error flashings on the LED from the plug.
status_led:
pin:
number: GPIO0                         # Default: RED GPIO0 / BLUE GPIO2
inverted: true

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# SP20

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####
#
# Configuration File for TECKIN-SP20
# - If you switch from Tasmota - check if you have HLW8012 in your template then this config can be used.
#
# Notices:
# ========
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
# To finetune your wattage/voltage measurement, check the substitutions "current_res / voltage_div"
#
# Builddate: 14.04.2021 by X-R4Y
#
####
substitutions:
device_id:      teckin_sp20       # Device-ID Unique
device_name:    teckin_sp20       # Device-Type for Category
friendly_name:  Teckin_SP20       # Device-Name for Channel
current_res:    '0.001906'        # Higher value gives lower watt readout (Default 0.001906)
voltage_div:    '950'             # Lower value gives lower voltage readout

esphome:
name: $device_name
platform: ESP8266
board: esp01_1m
esp8266_restore_from_flash: true

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_gosund_sp1_1
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
#web_server:
#  port: 80

logger:
# https://esphome.io/components/logger

api:
password: !secret api_password

ota:
password: !secret ota_password

sensor:
- platform: hlw8012
  # https://esphome.io/components/sensor/hlw8012.html
  # current, power, voltage can all use sensor options https://esphome.io/components/sensor/#config-sensor
  sel_pin:
  number: GPIO12
  inverted: True
  cf_pin: GPIO5
  cf1_pin: GPIO14

  current:
  name: ${friendly_name}_Current
  unit_of_measurement: A
  accuracy_decimals: 3

  power:
  name: ${friendly_name}_Power
  id: power_monitor_value
  unit_of_measurement: W
  accuracy_decimals: 2
  filters:
  - lambda: return (x / 2.2);

  voltage:
  name: ${friendly_name}_Voltage
  unit_of_measurement: V
  accuracy_decimals: 2
  current_resistor: $current_res
  voltage_divider: $voltage_div
  change_mode_every: 5            # default 8
  update_interval: 15s            # default 60s

  energy:
  name: ${friendly_name}_Energy
  unit_of_measurement: "Wh"

- platform: total_daily_energy
  name: ${friendly_name}_Total_Daily_Energy
  power_id: power_monitor_value
  filters:
  - multiply: 0.001         # convert Wh to kWh
    unit_of_measurement: kWh

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  name: ${friendly_name}_Uptime_Information
  id: uptime_sensor
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
# Hardware Button at plug to turn on/off relay manually
- platform: gpio
  pin:
  number: GPIO13
  id: button
  name: ${friendly_name}_Button
  on_press:
  - switch.toggle: relay_template
    internal: True

output:
# Hardware LEDs: Blue and Red, triggering on different states
- platform: gpio
  id: red_led_output    # Status LED RED
  pin:
  number: GPIO0
  inverted: True

- platform: gpio
  id: blue_led_output   # Status LED BLUE
  pin:
  number: GPIO2
  inverted: True

switch:
# Hardware Relay: Relay that triggers the output plug
- platform: gpio
  pin: GPIO4
  id: relay

- platform: template
  name: ${friendly_name}_Relay
  id: relay_template
  lambda: |-
  if (id(relay).state) {
  return true;
  } else {
  return false;
  }
  turn_on_action:
  - output.turn_on: blue_led_output   # Turns on blue LED while relay on
  - output.turn_off: red_led_output   # Turns off red LED while relay on
  - switch.turn_on: relay             # Turns relay on
    turn_off_action:
  - output.turn_off: blue_led_output  # Turns off blue LED while relay off
  - output.turn_on: red_led_output    # Turns on red LED while relay off
  - switch.turn_off: relay            # Turns relay off

# ==============
# !!! Notice !!!
# ==============
# If enabled, the Red LED will not light up while relay is in off-state!
# To disable the status LED feature put # in front of the following 4 lines
# If disabled, you wont get any error flashings on the LED from the plug.
#status_led:
#  pin:
#    number: GPIO0                         # Default: RED GPIO0 / BLUE GPIO2
#    inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

# Sonoff

ToDo<

# Shelly

ToDo<

# Vansware

# VANSWARE Plug (with LED Ring)

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####
#
# Configuration File for VANSWARE Plug (with LED Ring)
# - If you switch from Tasmota - check if you have BL0937 on GPIO5, then this config can be used.
#
# Notices:
# ========
# - You have to create a "SECRETS.YAML" first (!) and VALIDATE (!) this configuration before uploading to plug!!!
#
# Useful Links:
# ========
# Calibrate Power Source: https://frenck.dev/calibrating-an-esphome-flashed-power-plug/
#
# Builddate: 15.04.2021 by X-R4Y (alias V!P3R_76 @ Discord)
#
####

substitutions:
device_id:      vansware    # Device-ID Unique (only lowercase!)
device_name:    vansware    # Device-Type for Category (only lowercase!)
friendly_name:  vansware    # Device-Name for Channel (Lower-/Uppercase allowed)
current_res:    '0.001906'  # Higher value gives lower watt readout (Default 0.001906)
voltage_div:    '912'       # Lower value gives lower voltage readout (Default 912 ~ 226V)

esphome:
name: $device_name
platform: ESP8266
arduino_version: 2.5.1
board: esp8285

wifi:
ssid:         !secret wifi_ssid
password:     !secret wifi_password
fast_connect: on

# Optional manual IP
#  manual_ip:
#    static_ip:  !secret ip_vansware
#    gateway:    !secret ip_gateway
#    subnet:     !secret ip_netmask
#    dns1:       !secret ip_dns_1
domain:       !secret ip_domain

# Enable fallback hotspot (captive portal) in case wifi connection fails
#  ap:
#    ssid: $device_name_Hotspot_Fallback
#    password: "fallback"

# Enable if you wish to have a minimalistic web-interface for your device
web_server:
port: 80

api:
password: !secret api_password

ota:
password: !secret ota_password

logger:           # Reduce log level as otherwise logs would be flooded with analog sensor readings
logs:
sensor: ERROR # Options INFO / WARN / ERROR
adc: ERROR    # Options INFO / WARN / ERROR

sensor:
- platform: hlw8012
  # https://esphome.io/components/sensor/hlw8012.html
  # current, power, voltage can all use sensor options https://esphome.io/components/sensor/#config-sensor
  sel_pin:
  number: GPIO12
  inverted: True
  cf_pin: GPIO5
  cf1_pin: GPIO14

  current:
  name: ${friendly_name}_Current
  unit_of_measurement: A
  accuracy_decimals: 3

  power:
  name: ${friendly_name}_Power
  id: power_monitor_value
  unit_of_measurement: W
  accuracy_decimals: 2
  filters:
  - lambda: return (x / 2.2);

  voltage:
  name: ${friendly_name}_Voltage
  unit_of_measurement: V
  accuracy_decimals: 2
  current_resistor: $current_res  # default 0.001
  voltage_divider: $voltage_div   # default 2351
  change_mode_every: 3            # default 8
  update_interval: 10s            # default 60s

  energy:
  name: ${friendly_name}_Energy
  unit_of_measurement: "Wh"

- platform: total_daily_energy
  name: ${friendly_name}_Total_Daily_Energy
  power_id: power_monitor_value
  filters:
  - multiply: 0.001         # convert Wh to kWh
    unit_of_measurement: kWh

- platform: wifi_signal
  name: ${friendly_name}_WiFi_Information
  update_interval: 60s

- platform: uptime
  name: ${friendly_name}_Uptime_Information
  id: uptime_sensor
  update_interval: 60s
  on_raw_value:
  then:
  - text_sensor.template.publish:
  id: uptime_readable
  state: !lambda |-
  int seconds = round(id(uptime_sensor).raw_state);
  int days = seconds / (24 * 3600);
  seconds = seconds % (24 * 3600);
  int hours = seconds / 3600;
  seconds = seconds % 3600;
  int minutes = seconds /  60;
  seconds = seconds % 60;
  return (
  (days ? String(days) + "d " : "") +
  (hours ? String(hours) + "h " : "") +
  (minutes ? String(minutes) + "m " : "") +
  (String(seconds) + "s")
  ).c_str();

binary_sensor:
# Hardware Button at plug to turn on/off relay manually
- platform: gpio
  pin:
  number: GPIO13
  id: button
  name: ${friendly_name}_Button
  on_press:
  - switch.toggle: relay_template
    internal: True

output:
# Hardware LEDs: Blue and Red, triggering on different states
- platform: esp8266_pwm
  id: red_led
  pin:
  number: GPIO0
  inverted: true
- platform: esp8266_pwm
  id: green_led
  pin:
  number: GPIO4
  inverted: true
- platform: esp8266_pwm
  id: blue_led
  pin:
  number: GPIO2
  inverted: true

light:
- platform: monochromatic
  id: light1
  output: red_led
  name: ${friendly_name}_LED1_Red
- platform: monochromatic
  id: light2
  output: green_led
  name: ${friendly_name}_LED2_Green
- platform: monochromatic
  id: light3
  output: blue_led
  name: ${friendly_name}_LED3_Blue

switch:
# Hardware Relay: Relay that triggers the output plug
- platform: gpio
  pin: GPIO15
  id: relay

- platform: template
  name: ${friendly_name}_Relay
  id: relay_template
  lambda: |-
  if (id(relay).state) {
  return true;
  } else {
  return false;
  }
  turn_on_action:
  - output.turn_on: red_led           # Turns on blue LED while relay on
  - output.turn_off: green_led        # Turns off red LED while relay on
  - switch.turn_on: relay             # Turns relay on
    turn_off_action:
  - output.turn_off: red_led          # Turns off blue LED while relay off
  - output.turn_on: green_led         # Turns on red LED while relay off
  - switch.turn_off: relay            # Turns relay off

# ==============
# !!! Notice !!!
# ==============
# To disable the status LED feature put # in front of the following 4 lines
# If disabled, you wont get any error flashings on the LED from the plug.
status_led:
pin:
number: GPIO2                         # Default: RED GPIO0 / GREEN GPIO4 / BLUE GPIO2
inverted: true

# Enable time component to reset energy at midnight
time:
- platform: sntp                        # Uses NTP protocol for time information
  id: my_time                           # Uses my local time from compiling

text_sensor:
- platform: template
  name: ${friendly_name}_Uptime         # Enable Uptime-Sensor in readable format    
  id: uptime_readable
  icon: mdi:clock-start
- platform: version
  name: ${friendly_name}_version        # Show module Version in structure
- platform: wifi_info
  ip_address:
  name: ${friendly_name}_ip           # Show WIFI IP-address in structure
  ssid:
  name: ${friendly_name}_ssid         # Show WIFI SSID in structure
  bssid:
  name: ${friendly_name}_bssid        # Show WIFI BSSID in structure

ToDo<

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