Bonjour,
Je partage ici un petit projet qui fait suite à ce sujet : Matériel pour suivi des consommations électriques, d'eau et de gaz.
N’ayant pas trouvé ce que je voulais, j’ai construis une centrale de mesure avec :
- 18 mesures d’énergie électrique
- 1 interface TIC pour le compteur électrique
- 3 entrées de comptage tout ou rien
- 2 voies multifonctions (puisqu’il me restait 2 GPIO de libre)
- Un afficheur avec son codeur pour l’affichage des données
- Une interface Ethernet
Ce projet est terminé et fonctionnel (depuis 1 semaine).
Alimentation
Le montage a besoin de 3 tensions pour fonctionner :
- 3.3v : cette tension est produite par un régulateur à découpage. C’est la tension principale, utilisée par presque tous les composants du montage.
- 5v : cette tension est aussi produite par un régulateur à découpage. Elle est utilisée pour alimenter la carte contenant le microcontrôleur ESP32 et l’afficheur.
- 12v : cette tension est mise à disposition pour l’alimentation des capteurs de comptage (type capteur inductif).
Mesure d’énergies électrique
Cette partie repose sur des circuits Atmel ATM90E32. Ces circuits sont prévus pour mesurer l’énergie sur 3 phases. Les mesures de courant s’effectuent avec des transformateurs de courant. Le montage prévoit la possibilité d’utiliser des TC avec sortie courant (les plus simples) ou avec sortie tension. L’acquisition des 3 tensions se fait au travers de transformateur(s), pour garantir l’isolation galvanique par rapport au secteur. Si l’appareil est utilisé sur une installation monophasée, les 3 entrées tension sont à ponter entre elles. Si l’installation est en triphasé, il faut prévoir 3 transformateurs. L’accès aux données des circuits de mesure se fait via un bus SPI.
Cet partie du schéma est issue des schémas de CircuitSetup, je n’ai rien inventé.
Interface TIC
Cette interface permet de récupérer les données du compteur électrique via l’interface TIC. Là encore, je n’ai rien inventé. Tous les détails sont disponibles ici : Récupérer les données de son compteur Linky – MiniProjets.net
A noter : c’est la deuxième fois que j’utilise ce schéma et c’est la deuxième fois que j’ai du remplacer la résistance de 10k placée après l’optocoupleur par une 100k. Sans cette modification le transistor ne commute pas car le signal n’a pas assez d’amplitude.
Interface de comptage tout ou rien
Il y a 3 entrées de comptage tout ou rien. Ce montage permet d’utiliser aussi bien un capteur à contact sec qu’une sortie à collecteur ouvert. Il est possible d’utiliser une tension comprise entre 3.3V et 12V.
J’ai utilisé un simple transistor, ce qui fonctionne très bien, mais il aurait aussi été possible d’utiliser une bascule de Schmitt.
Pour chaque voie, il est possible d’activer une résistance de pull-up ou de pull-down avec un cavalier. La valeur est volontairement faible pour permettre l’usage d’un capteur inductif en mode deux fils (ce qui est mon cas pour le compteur d’eau). Elle est même trop faible pour la sortie impulsion du Gazpar. Dans ce cas, il faut utiliser une résistance de tirage externe (10k pour le Gazpar).
Entrées multifonction
Il s’agit de deux entrées/sorties du microcontrôleur mises directement à disposition (avec une résistance de pull-up et une protection anti-esd). Ces voies ne supportent que du 3.3v.
Je me sers de la première voie pour un capteur de température et d’humidité DTH-22 et de la seconde pour quelques sondes de température DS18B20.
Interface Ethernet
L’interface Ethernet est assurée par un circuit Wiznet W5500. J’ai préféré une solution sur bus SPI
plutôt qu’avec une interface RMII en raison de la faible consommation de GPIO.
Cette solution nécessite tout de même un bus SPI dédié.
A noter que le serveur Web ne semble pas fonctionner correctement. Je pense que c’est dû à la « lenteur » du bus SPI vu le volume important d’informations à échanger. La communication avec Home Assistant ne pose aucun problème, de même pour les mises à jour en OTA.
Afficheur
La partie afficheur se base sur un ST7920 accompagné d’un codeur.
L’afficheur fonctionne en 5V ce qui nécessite une adaptation de niveau pour le faire dialoguer avec le microcontrôleur (toujours en SPI).
Le codeur comprend un bouton poussoir. Les deux voies du codeurs et le bouton poussoir sont filtrées avant d’être transmises au microcontrôleur.
A noter, j’ai de léger artefacts sur l’afficheur. Je pense que c’est causé par la bibliothèque, car, dans la même configuration, je n’ai aucun problème avec un ATMEGA328P et la bibliothèque U8g2.
Microcontrôleur
Rien de spécial à dire sur cette partie : j’utilise un ESP32-S2FH4 de chez Waweshare.
A noter, il est possible d’utiliser un ESP32 ou un RP2040 sans modification du circuit imprimé.
J’ai été confronté à une subtilité : l’ESP32 ne peut pas gérer plus de 6 périphériques SPI par bus SPI. Si on fait les comptes, j’ai 7 périphériques SPI (l’interface Ethernet ne compte pas car elle dispose de son propre bus SPI). J’ai du utiliser « l’émulateur » (software) pour contourner cette limite. Cela peut poser problème, notamment au niveau de l’afficheur (si l’afficheur utilisé est plus gourmand en ressource, cela peut causer des ralentissements). Dans mon cas, je ne vois pas de problème.
Les détails sont disponibles ici : GitHub - mosfet05/Metering_Unit: Centrale de mesure
Le code YAML pour ESPHome :
substitutions:
# GPIO setup
GPIO_display_backlight: "42"
GPIO_CS_MeterChipA: "41"
GPIO_CS_MeterChipB: "7"
GPIO_CS_MeterChipC: "39"
GPIO_CS_MeterChipD: "38"
GPIO_CS_MeterChipE: "17"
GPIO_CS_MeterChipF: "2"
GPIO_Counter_A: "6"
GPIO_Counter_B: "40"
GPIO_Counter_C: "8"
GPIO_CS_Display: "4"
GPIO_HMI_Encoder_A: "37"
GPIO_HMI_Encoder_B: "36"
GPIO_HMI_Encoder_BP: "5"
GPIO_HMI_LED: "9"
GPIO_SPI0_SCLK: "14"
GPIO_SPI0_MOSI: "15"
GPIO_SPI0_MISO: "16"
GPIO_SPI1_SCLK: "34"
GPIO_SPI1_MOSI: "35"
GPIO_SPI1_MISO: "12"
GPIO_CS_Eth: "13"
GPIO_Int_Eth: "11"
GPIO_Rst_Eth: "10"
GPIO_TIC_RX: "44"
GPIO_IO_A: "43"
GPIO_IO_B: "3"
# For 12Vac transformer
Meters_gain_U: "19720"
# Current Sensor : https://www.aliexpress.com/item/1005006797684716.html
Meters_gain_CT_10A: "3084"
Meters_gain_CT_15A: "4626"
Meters_gain_CT_20A: "6200"
Meters_gain_CT_30A: "8650"
Meters_gain_CT_50A: "15420"
# Keywords
NameTemp: "Temperature"
NameHumidity: "Humidite"
NameFrequence: "Frequence"
NameVoltage: "Tension"
NameIntensity: "Courant"
NamePower: "Puissance"
Name_Energy: "Energie"
NameInstFlow: "Debit instantane"
NameTotal: "Total"
NameCmdCalibration: "Calibrer"
NameCmdOffsetCalibration: "RAZ calibration"
NameIPAddr: "@IP"
NameMACAddr: "@MAC"
NameUptime: "Actif"
PageTitleTIC: "Infos. Linky"
PageTitleMeasure: "Voie"
PageTitleEnergy: "Energie"
PageTitleCounter: "Cpt."
PageTitleMultiusageIO_A: "IO A - garage"
PageTitleMultiusageIO_B: "IO B - Temperatures"
PageTitleSystem: "Systeme"
Unconnected_Message: "Deconnecte"
Name_Cmd_Restart: "Redemarrer"
# TIC label
NameTIC_ADCO: "PDL"
NameTICCurrentD: "En cours"
NameTICNextD: "Demain"
NameTICColor: "Couleur"
NameTICBlueD: "Bleu"
NameTICWhiteD: "Blanc"
NameTICRedD: "Rouge"
NameTICPTEC: "Rouge"
# Power meters name
NameMeterA: "Mesures 1>3"
NameMeterB: "Mesures 4>6"
NameMeterC: "Mesures 7>9"
NameMeterD: "Mesures 10>12"
NameMeterE: "Mesures 13>15"
NameMeterF: "Mesures 16>18"
# Power meters chanel name
NameMeterA_Ch01: "VMC"
NameMeterA_Ch02: "PC etage 1"
NameMeterA_Ch03: "PC Salon"
NameMeterB_Ch01: "PC SaM"
NameMeterB_Ch02: "PC Bureau"
NameMeterB_Ch03: "PC Credenc"
NameMeterC_Ch01: "Cuisson"
NameMeterC_Ch02: "Four"
NameMeterC_Ch03: "L. vaissel"
NameMeterD_Ch01: "S. linge"
NameMeterD_Ch02: "L. linge"
NameMeterD_Ch03: "Chauf eau"
NameMeterE_Ch01: "Chaudiere"
NameMeterE_Ch02: "Frigo"
NameMeterE_Ch03: "Congel"
NameMeterF_Ch01: "Baie info"
NameMeterF_Ch02: "Ecl1 RdC"
NameMeterF_Ch03: "PC Ext"
# Counters name
NameCounterA: "Gaz"
NameCounterB: "Eau"
NameCounterC: "Inutilise"
#Multiusage IO name
NameIOA: "Garage"
NameIOB_01: "Ballon ECS"
NameIOB_02: "Depart ECS"
NameIOB_03: "Retour ECS"
NameIOB_04: "Cellier"
#Linky name
Name_Linky_PTEC: "Linky Periode Tarifaire"
Name_Linky_ADCO: "Linky Adresse"
Name_Linky_HCHC: "Linky Index HC"
Name_Linky_HCHP: "Linky Index HP"
Name_Linky_IINST: "Linky Intensite instantannee"
Name_Linky_PAPP: "Linky Puissance Apparente Instantanee Soutiree"
Name_Linky_MOTDETAT: "Linky Mot d'etat"
# Parameters
DisplayTurnOffDelay: 10min
# Globals variable
globals:
# Page number managment
- id: display_page
type: int
initial_value: "-1"
- id: counter_a_total_save
type: float
initial_value: "0.0"
restore_value: True
- id: counter_b_total_save
type: float
initial_value: "0.0"
restore_value: True
#- id: counter_c_total_save
# type: float
# initial_value: "0.0"
# restore_value: True
preferences:
flash_write_interval: 5min
# ESP Home API
esphome:
name: centrale-de-mesure
friendly_name: Centrale de mesure
on_boot:
then:
- pulse_meter.set_total_pulses:
id: counter_a
value: !lambda "return id(counter_a_total_save);"
- pulse_meter.set_total_pulses:
id: counter_b
value: !lambda "return id(counter_b_total_save);"
# - pulse_meter.set_total_pulses:
# id: counter_c_total
# value: !lambda "return id(counter_c_total_save);"
# ESP32 plateform definition
esp32:
# For Waveshare ESP32-S2 development board, use deneyap mini as board selection
board: deneyapmini
variant: ESP32S2
# Arduino framwork doesn't work with Ethernet component (reboot loop issue when Ethernet cord is plugged)
framework:
type: esp-idf
version: recommended
# Enable logging
logger:
level: ERROR
# Only 3 attemp for finding devices before rolling back in safe mode
safe_mode:
num_attempts: 3
# Enable Home Assistant API
api:
encryption:
key: !secret project_centralemesure_api_key
reboot_timeout: 0s
ota:
- platform: esphome
password: !secret project_centralemesure_ota_key
# With Ethernet component the Web interface has to be as lightest as possible (with the logger component, a crash can occur)
web_server:
id: web_interface
port: 80
version: 3
local: False
include_internal: False
log: False
auth:
username: !secret project_centralemesure_web_user
password: !secret project_centralemesure_web_password
# Elements grouping
sorting_groups:
- id: sorting_group_meter_A
name: ${NameMeterA}
sorting_weight: 10
- id: sorting_group_meter_B
name: ${NameMeterB}
sorting_weight: 11
- id: sorting_group_meter_C
name: ${NameMeterC}
sorting_weight: 12
- id: sorting_group_meter_D
name: ${NameMeterD}
sorting_weight: 13
- id: sorting_group_meter_E
name: ${NameMeterE}
sorting_weight: 14
- id: sorting_group_meter_F
name: ${NameMeterF}
sorting_weight: 15
- id: sorting_group_meter_Counter
name: ${PageTitleCounter}
sorting_weight: 30
- id: sorting_group_meter_MultiusageIO_A
name: ${PageTitleMultiusageIO_A}
sorting_weight: 40
- id: sorting_group_meter_MultiusageIO_B
name: ${PageTitleMultiusageIO_B}
sorting_weight: 41
- id: sorting_group_TIC
name: ${PageTitleTIC}
sorting_weight: 50
- id: sorting_group_System
name: ${PageTitleSystem}
sorting_weight: 90
# Time: https://esphome.io/components/time.html
time:
- platform: homeassistant
timezone: "Europe/Paris"
id: homeassistant_time
# Wifi cannot be used with Ethernet component
# wifi:
# ssid: !secret wifi_ssid
# password: !secret wifi_password
# id: wlan0
# # Enable fallback hotspot (captive portal) in case wifi connection fails
# ap:
# ssid: !secret project_centralemesure_fallback_wifi_ssid
# password: !secret project_centralemesure_fallback_wifi_password
# Ethernet SPI configuration
ethernet:
id: lan0
type: W5500
clk_pin: ${GPIO_SPI1_SCLK}
mosi_pin: ${GPIO_SPI1_MOSI}
miso_pin: ${GPIO_SPI1_MISO}
cs_pin: ${GPIO_CS_Eth}
interrupt_pin: ${GPIO_Int_Eth}
reset_pin: ${GPIO_Rst_Eth}
# Hardware interfaces
# SPI configuration
spi:
- id: spi_bus0
clk_pin: ${GPIO_SPI0_SCLK}
mosi_pin: ${GPIO_SPI0_MOSI}
miso_pin: ${GPIO_SPI0_MISO}
# With Ethernet component, interface must be spi3 or software, nothing else
# Software SPI is mandatory for more than 6 SPI slaves
interface: software
# UART configuration for TIC
uart:
- id: uart_TIC
rx_pin: ${GPIO_TIC_RX}
baud_rate: 1200 # 9600 == mode standard, 1200 == mode historique
parity: EVEN
data_bits: 7
stop_bits: 1
# Linky TIC configuration
teleinfo:
- id: TIC_Teleinfo
historical_mode: True
update_interval: 2s
uart_id: uart_TIC
# One wire configuration on I/O B
one_wire:
- id: one_wire_B
platform: gpio
pin: ${GPIO_IO_B}
# Logger level selector
select:
- platform: logger
name: "Niveau de Log"
id: logger_select
web_server:
sorting_group_id: sorting_group_System
# Sensors section
sensor:
- platform: uptime
id: sys_uptime
name: ${NameUptime}
unit_of_measurement: s
device_class: duration
accuracy_decimals: 0
update_interval: 60s
# Metering chip A datas
- platform: atm90e32
cs_pin:
number: ${GPIO_CS_MeterChipA}
inverted: False
mode: OUTPUT
id: MeteringChipA
# Phase A section
phase_a:
voltage:
name: ${NameVoltage} ${NameMeterA_Ch01}
id: MeteringChipA_Ch01_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
current:
name: ${NameIntensity} ${NameMeterA_Ch01}
id: MeteringChipA_Ch01_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
power:
name: ${NamePower} ${NameMeterA_Ch01}
id: MeteringChipA_Ch01_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterA_Ch01}
id: MeteringChipA_Ch01_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_A
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_10A}
# Phase B section
phase_b:
voltage:
name: ${NameVoltage} ${NameMeterA_Ch02}
id: MeteringChipA_Ch02_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
current:
name: ${NameIntensity} ${NameMeterA_Ch02}
id: MeteringChipA_Ch02_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
power:
name: ${NamePower} ${NameMeterA_Ch02}
id: MeteringChipA_Ch02_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterA_Ch02}
id: MeteringChipA_Ch02_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_A
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_50A}
# Phase C section
phase_c:
voltage:
name: ${NameVoltage} ${NameMeterA_Ch03}
id: MeteringChipA_Ch03_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
current:
name: ${NameIntensity} ${NameMeterA_Ch03}
id: MeteringChipA_Ch03_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
power:
name: ${NamePower} ${NameMeterA_Ch03}
id: MeteringChipA_Ch03_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterA_Ch03}
id: MeteringChipA_Ch03_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_A
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Common section
frequency:
name: ${NameFrequence} ${NameMeterA}
id: MeteringChipA_frequency
device_class: frequency
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_A
chip_temperature:
name: ${NameTemp} ${NameMeterA}
id: MeteringChipA_chip_temperature
device_class: temperature
state_class: measurement
web_server:
sorting_group_id: sorting_group_System
line_frequency: 50Hz
current_phases: 3
gain_pga: 1X
update_interval: 1s
spi_id: spi_bus0
# Software SPI --> Slowing down SPI speed
data_rate: 200kHz
# Metering chip B datas
- platform: atm90e32
cs_pin:
number: ${GPIO_CS_MeterChipB}
inverted: False
mode: OUTPUT
id: MeteringChipB
# Phase A section
phase_a:
voltage:
name: ${NameVoltage} ${NameMeterB_Ch01}
id: MeteringChipB_Ch01_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
current:
name: ${NameIntensity} ${NameMeterB_Ch01}
id: MeteringChipB_Ch01_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
power:
name: ${NamePower} ${NameMeterB_Ch01}
id: MeteringChipB_Ch01_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterB_Ch01}
id: MeteringChipB_Ch01_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_B
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Phase B section
phase_b:
voltage:
name: ${NameVoltage} ${NameMeterB_Ch02}
id: MeteringChipB_Ch02_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
current:
name: ${NameIntensity} ${NameMeterB_Ch02}
id: MeteringChipB_Ch02_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
power:
name: ${NamePower} ${NameMeterB_Ch02}
id: MeteringChipB_Ch02_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterB_Ch02}
id: MeteringChipB_Ch02_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_B
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Phase C section
phase_c:
voltage:
name: ${NameVoltage} ${NameMeterB_Ch03}
id: MeteringChipB_Ch03_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
current:
name: ${NameIntensity} ${NameMeterB_Ch03}
id: MeteringChipB_Ch03_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
power:
name: ${NamePower} ${NameMeterB_Ch03}
id: MeteringChipB_Ch03_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterB_Ch03}
id: MeteringChipB_Ch03_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_B
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Common section
frequency:
name: ${NameFrequence} ${NameMeterB}
id: MeteringChipB_frequency
device_class: frequency
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_B
chip_temperature:
name: ${NameTemp} ${NameMeterB}
id: MeteringChipB_chip_temperature
device_class: temperature
state_class: measurement
web_server:
sorting_group_id: sorting_group_System
line_frequency: 50Hz
current_phases: 3
gain_pga: 1X
update_interval: 1s
spi_id: spi_bus0
# Software SPI --> Slowing down SPI speed
data_rate: 200kHz
# Metering chip C datas
- platform: atm90e32
cs_pin:
number: ${GPIO_CS_MeterChipC}
inverted: False
mode: OUTPUT
id: MeteringChipC
# Phase A section
phase_a:
voltage:
name: ${NameVoltage} ${NameMeterC_Ch01}
id: MeteringChipC_Ch01_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
current:
name: ${NameIntensity} ${NameMeterC_Ch01}
id: MeteringChipC_Ch01_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
power:
name: ${NamePower} ${NameMeterC_Ch01}
id: MeteringChipC_Ch01_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterC_Ch01}
id: MeteringChipC_Ch01_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_C
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_30A}
# Phase B section
phase_b:
voltage:
name: ${NameVoltage} ${NameMeterC_Ch02}
id: MeteringChipC_Ch02_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
current:
name: ${NameIntensity} ${NameMeterC_Ch02}
id: MeteringChipC_Ch02_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
power:
name: ${NamePower} ${NameMeterC_Ch02}
id: MeteringChipC_Ch02_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterC_Ch02}
id: MeteringChipC_Ch02_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_C
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Phase C section
phase_c:
voltage:
name: ${NameVoltage} ${NameMeterC_Ch03}
id: MeteringChipC_Ch03_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
current:
name: ${NameIntensity} ${NameMeterC_Ch03}
id: MeteringChipC_Ch03_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
power:
name: ${NamePower} ${NameMeterC_Ch03}
id: MeteringChipC_Ch03_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterC_Ch03}
id: MeteringChipC_Ch03_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_C
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Common section
frequency:
name: ${NameFrequence} ${NameMeterC}
id: MeteringChipC_frequency
device_class: frequency
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_C
chip_temperature:
name: ${NameTemp} ${NameMeterC}
id: MeteringChipC_chip_temperature
device_class: temperature
state_class: measurement
web_server:
sorting_group_id: sorting_group_System
line_frequency: 50Hz
current_phases: 3
gain_pga: 1X
update_interval: 1s
spi_id: spi_bus0
# Software SPI --> Slowing down SPI speed
data_rate: 200kHz
# Metering chip D datas
- platform: atm90e32
cs_pin:
number: ${GPIO_CS_MeterChipD}
inverted: False
mode: OUTPUT
id: MeteringChipD
# Phase A section
phase_a:
voltage:
name: ${NameVoltage} ${NameMeterD_Ch01}
id: MeteringChipD_Ch01_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
current:
name: ${NameIntensity} ${NameMeterD_Ch01}
id: MeteringChipD_Ch01_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
power:
name: ${NamePower} ${NameMeterD_Ch01}
id: MeteringChipD_Ch01_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterD_Ch01}
id: MeteringChipD_Ch01_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_D
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Phase B section
phase_b:
voltage:
name: ${NameVoltage} ${NameMeterD_Ch02}
id: MeteringChipD_Ch02_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
current:
name: ${NameIntensity} ${NameMeterD_Ch02}
id: MeteringChipD_Ch02_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
power:
name: ${NamePower} ${NameMeterD_Ch02}
id: MeteringChipD_Ch02_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterD_Ch02}
id: MeteringChipD_Ch02_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_D
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Phase C section
phase_c:
voltage:
name: ${NameVoltage} ${NameMeterD_Ch03}
id: MeteringChipD_Ch03_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
current:
name: ${NameIntensity} ${NameMeterD_Ch03}
id: MeteringChipD_Ch03_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
power:
name: ${NamePower} ${NameMeterD_Ch03}
id: MeteringChipD_Ch03_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterD_Ch03}
id: MeteringChipD_Ch03_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_D
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Common section
frequency:
name: ${NameFrequence} ${NameMeterD}
id: MeteringChipD_frequency
device_class: frequency
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_D
chip_temperature:
name: ${NameTemp} ${NameMeterD}
id: MeteringChipD_chip_temperature
device_class: temperature
state_class: measurement
web_server:
sorting_group_id: sorting_group_System
line_frequency: 50Hz
current_phases: 3
gain_pga: 1X
update_interval: 1s
spi_id: spi_bus0
# Software SPI --> Slowing down SPI speed
data_rate: 200kHz
# Metering chip E datas
- platform: atm90e32
cs_pin:
number: ${GPIO_CS_MeterChipE}
inverted: False
mode: OUTPUT
id: MeteringChipE
# Phase A section
phase_a:
voltage:
name: ${NameVoltage} ${NameMeterE_Ch01}
id: MeteringChipE_Ch01_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
current:
name: ${NameIntensity} ${NameMeterE_Ch01}
id: MeteringChipE_Ch01_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
power:
name: ${NamePower} ${NameMeterE_Ch01}
id: MeteringChipE_Ch01_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterE_Ch01}
id: MeteringChipE_Ch01_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_E
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_10A}
# Phase B section
phase_b:
voltage:
name: ${NameVoltage} ${NameMeterE_Ch02}
id: MeteringChipE_Ch02_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
current:
name: ${NameIntensity} ${NameMeterE_Ch02}
id: MeteringChipE_Ch02_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
power:
name: ${NamePower} ${NameMeterE_Ch02}
id: MeteringChipE_Ch02_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterE_Ch02}
id: MeteringChipE_Ch02_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_E
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Phase C section
phase_c:
voltage:
name: ${NameVoltage} ${NameMeterE_Ch03}
id: MeteringChipE_Ch03_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
current:
name: ${NameIntensity} ${NameMeterE_Ch03}
id: MeteringChipE_Ch03_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
power:
name: ${NamePower} ${NameMeterE_Ch03}
id: MeteringChipE_Ch03_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterE_Ch03}
id: MeteringChipE_Ch03_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_E
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Common section
frequency:
name: ${NameFrequence} ${NameMeterE}
id: MeteringChipE_frequency
device_class: frequency
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_E
chip_temperature:
name: ${NameTemp} ${NameMeterE}
id: MeteringChipE_chip_temperature
device_class: temperature
state_class: measurement
web_server:
sorting_group_id: sorting_group_System
line_frequency: 50Hz
current_phases: 3
gain_pga: 1X
update_interval: 1s
spi_id: spi_bus0
# Software SPI --> Slowing down SPI speed
data_rate: 200kHz
# Metering chip F datas
- platform: atm90e32
cs_pin:
number: ${GPIO_CS_MeterChipF}
inverted: False
mode: OUTPUT
id: MeteringChipF
# Phase A section
phase_a:
voltage:
name: ${NameVoltage} ${NameMeterF_Ch01}
id: MeteringChipF_Ch01_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
current:
name: ${NameIntensity} ${NameMeterF_Ch01}
id: MeteringChipF_Ch01_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
power:
name: ${NamePower} ${NameMeterF_Ch01}
id: MeteringChipF_Ch01_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterF_Ch01}
id: MeteringChipF_Ch01_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_F
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_15A}
# Phase B section
phase_b:
voltage:
name: ${NameVoltage} ${NameMeterF_Ch02}
id: MeteringChipF_Ch02_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
current:
name: ${NameIntensity} ${NameMeterF_Ch02}
id: MeteringChipF_Ch02_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
power:
name: ${NamePower} ${NameMeterF_Ch02}
id: MeteringChipF_Ch02_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterF_Ch02}
id: MeteringChipF_Ch02_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_F
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_10A}
# Phase C section
phase_c:
voltage:
name: ${NameVoltage} ${NameMeterF_Ch03}
id: MeteringChipF_Ch03_voltage
device_class: voltage
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
current:
name: ${NameIntensity} ${NameMeterF_Ch03}
id: MeteringChipF_Ch03_current
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
power:
name: ${NamePower} ${NameMeterF_Ch03}
id: MeteringChipF_Ch03_power
device_class: power
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
forward_active_energy:
internal: True
name: ${Name_Energy} ${NameMeterF_Ch03}
id: MeteringChipF_Ch03_forward_p_energy
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_meter_F
gain_voltage: ${Meters_gain_U}
gain_ct: ${Meters_gain_CT_20A}
# Common section
frequency:
name: ${NameFrequence} ${NameMeterF}
id: MeteringChipF_frequency
device_class: frequency
state_class: measurement
web_server:
sorting_group_id: sorting_group_meter_F
chip_temperature:
name: ${NameTemp} ${NameMeterF}
id: MeteringChipF_chip_temperature
device_class: temperature
state_class: measurement
web_server:
sorting_group_id: sorting_group_System
line_frequency: 50Hz
current_phases: 3
gain_pga: 1X
update_interval: 1s
spi_id: spi_bus0
# Software SPI --> Slowing down SPI speed
data_rate: 200kHz
# Gas consumption (A counter)
# 1 pulse --> 10L (Gazpar)
- platform: pulse_meter
pin:
number: ${GPIO_Counter_A}
inverted: False
mode: INPUT
name: ${NameInstFlow} ${NameCounterA}
id: counter_a
unit_of_measurement: "L/min"
icon: "mdi:gas-burner"
timeout: 10min
internal_filter_mode: EDGE
internal_filter: 100ms
accuracy_decimals: 3
filters:
- multiply: 10.0
web_server:
sorting_group_id: sorting_group_meter_Counter
total:
name: ${NameTotal} ${NameCounterA}
id: counter_a_total
unit_of_measurement: "m³"
device_class: gas
icon: "mdi:gas-burner"
state_class: total_increasing
accuracy_decimals: 3
filters:
- lambda: |-
id(counter_a_total_save) = id(counter_a_total).raw_state;
return x*0.01;
web_server:
sorting_group_id: sorting_group_meter_Counter
# Water consumption (B counter)
# 1 pulse --> 1L
- platform: pulse_meter
pin:
number: ${GPIO_Counter_B}
inverted: False
mode: INPUT
name: ${NameInstFlow} ${NameCounterB}
id: counter_b
unit_of_measurement: "L/min"
icon: "mdi:water"
timeout: 10min
internal_filter_mode: EDGE
internal_filter: 100ms
accuracy_decimals: 3
filters:
- multiply: 1.0
web_server:
sorting_group_id: sorting_group_meter_Counter
total:
name: ${NameTotal} ${NameCounterB}
id: counter_b_total
unit_of_measurement: "m³"
device_class: water
icon: "mdi:water"
state_class: total_increasing
accuracy_decimals: 3
filters:
- lambda: |-
id(counter_b_total_save) = id(counter_b_total).raw_state;
return x*0.001;
web_server:
sorting_group_id: sorting_group_meter_Counter
# C counter (not used)
# 1 pulse --> xxL
# - platform: pulse_meter
# pin:
# number: ${GPIO_Counter_C}
# inverted: False
# mode: INPUT
#
# name: ${NameInstFlow} ${NameCounterC}
# unit_of_measurement: "L/min"
# icon:
# timeout: 1s
# internal_filter_mode: EDGE
# internal_filter: 200ms
# accuracy_decimals: 1
# filters:
# - multiply : PULSE
# web_server:
# sorting_group_id: sorting_group_meter_Counter
#
# total:
# name: ${NameTotal} ${NameCounterC}
# id: counter_c_total
# unit_of_measurement: "m³"
# device_class:
# state_class: total_increasing
# accuracy_decimals: 3
# icon:
# filters:
# - lambda: |-
# id(counter_c_total_save) = id(counter_c_total).raw_state;
# return x;
# web_server:
# sorting_group_id: sorting_group_meter_Counter
# Total energy for meter chip A
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterA_Ch01}
power_id: MeteringChipA_Ch01_forward_p_energy
id: MeteringChipA_Ch01_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterA_Ch02}
power_id: MeteringChipA_Ch02_forward_p_energy
id: MeteringChipA_Ch02_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterA_Ch03}
power_id: MeteringChipA_Ch03_forward_p_energy
id: MeteringChipA_Ch03_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
# Total energy for meter chip B
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterB_Ch01}
power_id: MeteringChipB_Ch01_forward_p_energy
id: MeteringChipB_Ch01_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterB_Ch02}
power_id: MeteringChipB_Ch02_forward_p_energy
id: MeteringChipB_Ch02_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterB_Ch03}
power_id: MeteringChipB_Ch03_forward_p_energy
id: MeteringChipB_Ch03_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
# Total energy for meter chip C
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterC_Ch01}
power_id: MeteringChipC_Ch01_forward_p_energy
id: MeteringChipC_Ch01_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterC_Ch02}
power_id: MeteringChipC_Ch02_forward_p_energy
id: MeteringChipC_Ch02_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterC_Ch03}
power_id: MeteringChipC_Ch03_forward_p_energy
id: MeteringChipC_Ch03_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
# Total energy for meter chip D
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterD_Ch01}
power_id: MeteringChipD_Ch01_forward_p_energy
id: MeteringChipD_Ch01_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterD_Ch02}
power_id: MeteringChipD_Ch02_forward_p_energy
id: MeteringChipD_Ch02_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterD_Ch03}
power_id: MeteringChipD_Ch03_forward_p_energy
id: MeteringChipD_Ch03_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
# Total energy for meter chip E
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterE_Ch01}
power_id: MeteringChipE_Ch01_forward_p_energy
id: MeteringChipE_Ch01_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterE_Ch02}
power_id: MeteringChipE_Ch02_forward_p_energy
id: MeteringChipE_Ch02_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterE_Ch03}
power_id: MeteringChipE_Ch03_forward_p_energy
id: MeteringChipE_Ch03_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
# Total energy for meter chip F
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterF_Ch01}
power_id: MeteringChipF_Ch01_forward_p_energy
id: MeteringChipF_Ch01_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterF_Ch02}
power_id: MeteringChipF_Ch02_forward_p_energy
id: MeteringChipF_Ch02_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
- platform: total_daily_energy
name: ${Name_Energy} ${NameMeterF_Ch03}
power_id: MeteringChipF_Ch03_forward_p_energy
id: MeteringChipF_Ch03_Energy
unit_of_measurement: 'kWh'
state_class: total_increasing
device_class: energy
accuracy_decimals: 3
filters:
# Multiplication factor from W to kW is 0.001
- multiply: 0.001
# Multiusage I/O A : Humidity and temperature of garage
- platform: dht
id: temp_humi_garage
pin: ${GPIO_IO_A}
model: DHT22
temperature:
name: ${NameTemp} ${NameIOA}
id: IOA_Temperature
web_server:
sorting_group_id: sorting_group_meter_MultiusageIO_A
humidity:
name: ${NameHumidity} ${NameIOA}
id: IOA_Humidity
web_server:
sorting_group_id: sorting_group_meter_MultiusageIO_A
update_interval: 60s
# Multiusage I/O B : Temperature 01
- platform: dallas_temp
id: IOB_Temperature_01
one_wire_id: one_wire_B
name: ${NameTemp} ${NameIOB_01}
address: 0xc0000000bd11ed28
update_interval: 60s
web_server:
sorting_group_id: sorting_group_meter_MultiusageIO_B
# Multiusage I/O B : Temperature 02
- platform: dallas_temp
id: IOB_Temperature_02
one_wire_id: one_wire_B
name: ${NameTemp} ${NameIOB_02}
address: 0xe1000000be55db28
update_interval: 60s
web_server:
sorting_group_id: sorting_group_meter_MultiusageIO_B
# Multiusage I/O B : Temperature 03
- platform: dallas_temp
id: IOB_Temperature_03
one_wire_id: one_wire_B
name: ${NameTemp} ${NameIOB_03}
address: 0x1a000000bfe3e628
update_interval: 60s
web_server:
sorting_group_id: sorting_group_meter_MultiusageIO_B
# Multiusage I/O B : Temperature 04
- platform: dallas_temp
id: IOB_Temperature_04
one_wire_id: one_wire_B
name: ${NameTemp} ${NameIOB_04}
address: 0xd8000000bd130b28
update_interval: 60s
web_server:
sorting_group_id: sorting_group_meter_MultiusageIO_B
# HMI encoder
- platform: rotary_encoder
name: "Codeur IHM"
id: HMI_Encoder
pin_a:
number: ${GPIO_HMI_Encoder_A}
inverted: False
mode: INPUT
pin_b:
number: ${GPIO_HMI_Encoder_B}
inverted: False
mode: INPUT
internal: True
web_server:
sorting_group_id: sorting_group_System
# On clockwise rotation, display next page and wake up backlight
# Pages organization :
# - 0 --> 5 : Intensity and voltage measurment for each ATM90E32 chip
# - 10 --> 15 : Power measurment for each ATM90E32 chip
# - 20 : Linky energy index
# - 21 --> 26 : Energy index for each ATM90E32 chip
# - 30 : Meters A, B and C data
# - 40 --> 41 : Multiusage IO A and B data
# - 90 --> 91 : System informations
on_clockwise:
- lambda: |-
switch (id(display_page)){
// Page jump
case 5:
id(display_page) = 10;
break;
case 15:
id(display_page) = 20;
break;
case 26:
id(display_page) = 30;
break;
case 30:
id(display_page) = 40;
break;
case 41:
id(display_page) = 90;
break;
case 91:
id(display_page) = 0;
break;
// Select next page
default:
id(display_page) = id(display_page)+1;
break;
}
- script.stop: display_backlight_auto_off_timer
- script.execute: display_backlight_auto_off_timer
- if:
condition:
- light.is_off:
id: display_backlight
then:
- light.turn_on:
id: display_backlight
brightness: 100%
# On anticlockwise rotation, diplsay previous page and wake up backlight
on_anticlockwise:
- lambda: |-
switch (id(display_page)){
// Page jump
case 0:
id(display_page) = 91;
break;
case 10:
id(display_page) = 5;
break;
case 20:
id(display_page) = 15;
break;
case 30:
id(display_page) = 26;
break;
case 40:
id(display_page) = 30;
break;
case 90:
id(display_page) = 41;
break;
// Select previous page
default:
if(id(display_page) > 0) {
id(display_page) = id(display_page)-1;
}
else {
id(display_page) = 0;
}
break;
}
- script.stop: display_backlight_auto_off_timer
- script.execute: display_backlight_auto_off_timer
- if:
condition:
- light.is_off:
id: display_backlight
then:
- light.turn_on:
id: display_backlight
brightness: 100%
# Linky TIC section
# Linky HC index
- platform: teleinfo
id: TIC_HCHC
tag_name: "HCHC"
name: ${Name_Linky_HCHC}
unit_of_measurement: "Wh"
icon: mdi:flash
teleinfo_id: TIC_Teleinfo
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_TIC
# Linky HP index
- platform: teleinfo
id: TIC_HCHP
tag_name: "HCHP"
name: ${Name_Linky_HCHP}
unit_of_measurement: "Wh"
icon: mdi:flash
teleinfo_id: TIC_Teleinfo
device_class: energy
state_class: total
web_server:
sorting_group_id: sorting_group_TIC
# Linky intensity
- platform: teleinfo
id: TIC_IRMS1
tag_name: "IINST"
name: ${Name_Linky_IINST}
unit_of_measurement: A
device_class: current
state_class: measurement
web_server:
sorting_group_id: sorting_group_TIC
# Linky apparent power
- platform: teleinfo
id: TIC_PAPP
tag_name: "PAPP"
name: ${Name_Linky_PAPP}
unit_of_measurement: VA
state_class: measurement
device_class: apparent_power
web_server:
sorting_group_id: sorting_group_TIC
# Index option Tempo
#- platform: teleinfo
# id: TIC_BBRHCJB
# tag_name: "BBRHCJB"
# name: "Linky Index Tempo Bleu HC"
# unit_of_measurement: kWh
# device_class: energy
# state_class: total_increasing
# accuracy_decimals: 3
# filters:
# - multiply: 0.001
#
# web_server:
# sorting_group_id: sorting_group_TIC
#- platform: teleinfo
# id: TIC_BBRHPJB
# tag_name: "BBRHPJB"
# name: "Linky Index Tempo Bleu HP"
# unit_of_measurement: kWh
# device_class: energy
# state_class: total_increasing
# accuracy_decimals: 3
# filters:
# - multiply: 0.001
#
# web_server:
# sorting_group_id: sorting_group_TIC
#- platform: teleinfo
# id: TIC_BBRHCJW
# tag_name: "BBRHCJW"
# name: "Linky Index Tempo Blanc HC"
# unit_of_measurement: kWh
# device_class: energy
# state_class: total_increasing
# accuracy_decimals: 3
# filters:
# - multiply: 0.001
#
# web_server:
# sorting_group_id: sorting_group_TIC
#- platform: teleinfo
# id: TIC_BBRHPJW
# tag_name: "BBRHPJW"
# name: "Linky Index Tempo Blanc HP"
# unit_of_measurement: kWh
# device_class: energy
# state_class: total_increasing
# accuracy_decimals: 3
# filters:
# - multiply: 0.001
#
# web_server:
# sorting_group_id: sorting_group_TIC
#- platform: teleinfo
# id: TIC_BBRHCJR
# tag_name: "BBRHCJR"
# name: "Linky Index Tempo Rouge HC"
# unit_of_measurement: kWh
# device_class: energy
# state_class: total_increasing
# accuracy_decimals: 3
# filters:
# - multiply: 0.001
#
# web_server:
# sorting_group_id: sorting_group_TIC
#- platform: teleinfo
# id: TIC_BBRHPJR
# tag_name: "BBRHPJR"
# name: "Linky Index Tempo Rouge HP"
# unit_of_measurement: kWh
# device_class: energy
# state_class: total_increasing
# accuracy_decimals: 3
# filters:
# - multiply: 0.001
#
# web_server:
# sorting_group_id: sorting_group_TIC
text_sensor:
# Ethernet addresses
- platform: ethernet_info
ip_address:
name: ${NameIPAddr}
id: lan0_ip_addr
mac_address:
name: ${NameMACAddr}
id: lan0_mac_addr
- platform: template
name: ${NameUptime}
id: sys_uptime_txt
update_interval: 60s
icon: mdi:clock-start
lambda: |-
int seconds = (id(sys_uptime).state);
int days = seconds / (24 * 3600);
seconds = seconds % (24 * 3600);
int hours = seconds / 3600;
seconds = seconds % 3600;
int minutes = seconds / 60;
seconds = seconds % 60;
std::string uptime_str = "";
if ( days ) {
uptime_str = to_string(days) +"d " + to_string(hours) +"h " + to_string(minutes) +"m "+ to_string(seconds) +"s";
} else if ( hours ) {
uptime_str = to_string(hours) +"h " + to_string(minutes) +"m "+ to_string(seconds) +"s";
} else if ( minutes ) {
uptime_str = to_string(minutes) +"m "+ to_string(seconds) +"s";
} else {
uptime_str = to_string(seconds) +"s";
}
return uptime_str;
# Libelle tarif fournisseur en cours !!! INUTILE !!!
#- platform: teleinfo
# id: TIC_LTARF
# tag_name: "LTARF"
# name: "Linky Tarif Actuel"
# icon: mdi:information
#
# web_server:
# sorting_group_id: sorting_group_TIC
# Linky address (also known as "Point De Livraison")
- platform: teleinfo
id: TIC_ADCO
tag_name: "ADCO"
name: ${Name_Linky_ADCO}
web_server:
sorting_group_id: sorting_group_TIC
# Linky tariff period
- platform: teleinfo
id: TIC_PTEC
tag_name: "PTEC"
name: ${Name_Linky_PTEC}
web_server:
sorting_group_id: sorting_group_TIC
# Couleur du lendemain
#- platform: teleinfo
# id: TIC_DEMAIN
# tag_name: "DEMAIN"
# name: "Linky Couleur Demain"
#
# web_server:
# sorting_group_id: sorting_group_TIC
# Horaire Heures Pleines Heures Creuses !!! INUTILE !!!
#- platform: teleinfo
# id: TIC_HHPHC
# tag_name: "HHPHC"
# name: "Linky Horaire HP/HC"
#
# web_server:
# sorting_group_id: sorting_group_TIC
# Status word of Linky meter
- platform: teleinfo
id: TIC_MOTDETAT
tag_name: "MOTDETAT"
name: ${Name_Linky_MOTDETAT}
web_server:
sorting_group_id: sorting_group_TIC
# Presence des potentiels !!! INUTILE !!!
#- platform: teleinfo
# id: TIC_PPOT
# tag_name: "PPOT"
# name: "Linky Presence Potentiels"
#
# web_server:
# sorting_group_id: sorting_group_TIC
button:
# ESP32 restart
- platform: restart
id: Cmd_Restart_Sys
name: ${Name_Cmd_Restart}
web_server:
sorting_group_id: sorting_group_System
# Calibration request for metering chip A
- platform: atm90e32
id: MeteringChipA
run_offset_calibration:
name: ${NameCmdCalibration} ${NameMeterA}
id: MeteringChipA_Calibration
web_server:
sorting_group_id: sorting_group_meter_A
clear_offset_calibration:
name: ${NameCmdOffsetCalibration} ${NameMeterA}
id: MeteringChipA_Offset_Calibration
web_server:
sorting_group_id: sorting_group_meter_A
# Calibration request for metering chip B
- platform: atm90e32
id: MeteringChipB
run_offset_calibration:
name: ${NameCmdCalibration} ${NameMeterB}
id: MeteringChipB_Calibration
web_server:
sorting_group_id: sorting_group_meter_B
clear_offset_calibration:
name: ${NameCmdOffsetCalibration} ${NameMeterB}
id: MeteringChipB_Offset_Calibration
web_server:
sorting_group_id: sorting_group_meter_B
# Calibration request for metering chip C
- platform: atm90e32
id: MeteringChipC
run_offset_calibration:
name: ${NameCmdCalibration} ${NameMeterC}
id: MeteringChipC_Calibration
web_server:
sorting_group_id: sorting_group_meter_C
clear_offset_calibration:
name: ${NameCmdOffsetCalibration} ${NameMeterC}
id: MeteringChipC_Offset_Calibration
web_server:
sorting_group_id: sorting_group_meter_C
# Calibration request for metering chip D
- platform: atm90e32
id: MeteringChipD
run_offset_calibration:
name: ${NameCmdCalibration} ${NameMeterD}
id: MeteringChipD_Calibration
web_server:
sorting_group_id: sorting_group_meter_D
clear_offset_calibration:
name: ${NameCmdOffsetCalibration} ${NameMeterD}
id: MeteringChipD_Offset_Calibration
web_server:
sorting_group_id: sorting_group_meter_D
# Calibration request for metering chip E
- platform: atm90e32
id: MeteringChipE
run_offset_calibration:
name: ${NameCmdCalibration} ${NameMeterE}
id: MeteringChipE_Calibration
web_server:
sorting_group_id: sorting_group_meter_E
clear_offset_calibration:
name: ${NameCmdOffsetCalibration} ${NameMeterE}
id: MeteringChipE_Offset_Calibration
web_server:
sorting_group_id: sorting_group_meter_E
# Calibration request for metering chip F
- platform: atm90e32
id: MeteringChipF
run_offset_calibration:
name: ${NameCmdCalibration} ${NameMeterF}
id: MeteringChipF_Calibration
web_server:
sorting_group_id: sorting_group_meter_F
clear_offset_calibration:
name: ${NameCmdOffsetCalibration} ${NameMeterF}
id: MeteringChipF_Offset_Calibration
web_server:
sorting_group_id: sorting_group_meter_F
# Counter A, reset button
- platform: template
name: ${NameCounterA} - Reset
id: Reset_Counter_A
on_press:
- pulse_meter.set_total_pulses:
id: counter_a
value: 0.0
web_server:
sorting_group_id: sorting_group_meter_Counter
# Counter B, reset button
- platform: template
name: ${NameCounterB} - Reset
id: Reset_Counter_B
on_press:
- pulse_meter.set_total_pulses:
id: counter_b
value: 0.0
web_server:
sorting_group_id: sorting_group_meter_Counter
# Counter C, reset button
# - platform: template
# name: ${NameCounterC} - Reset
# id: Reset_Counter_C
# on_press:
# - pulse_meter.set_total_pulses:
# id: counter_c
# value: 0.0
# web_server:
# sorting_group_id: sorting_group_meter_Counter
# Status Binary Sensor: https://esphome.io/components/binary_sensor/status.html
binary_sensor:
- platform: status
name: "Etat centrale de mesure"
web_server:
sorting_group_id: sorting_group_System
# HMI encoder push button
- platform: gpio
name: "Bouton codeur IHM"
id: HMI_Encoder_Button
pin:
number: ${GPIO_HMI_Encoder_BP}
inverted: True
mode: INPUT
internal: True
web_server:
sorting_group_id: sorting_group_System
# When pushing button, wake up backlight and display next information group
on_press:
then:
- lambda: |-
id(display_page) = id(display_page) + (10 - id(display_page) % 10); // Select the next group of pages (next 10 multiple)
- script.stop: display_backlight_auto_off_timer
- script.execute: display_backlight_auto_off_timer
- if:
condition:
- light.is_off:
id: display_backlight
then:
- light.turn_on:
id: display_backlight
brightness: 100%
output:
# Display backlight output
- platform: ledc
id: display_backlight_output
pin: ${GPIO_display_backlight}
frequency: 1000 Hz
min_power: 0%
max_power: 100%
light:
# Display backlight control
- platform: monochromatic
id: display_backlight
output: display_backlight_output
restore_mode: ALWAYS_ON
internal: True
effects:
- pulse:
name: "Fast_Blink"
transition_length: 0s
update_interval: 500ms
- pulse:
name: "Std_Blink"
transition_length: 0s
update_interval: 10s
web_server:
sorting_group_id: sorting_group_System
# Status LED control
- platform: esp32_rmt_led_strip
id: Status_LED
rgb_order: RGB
chipset: WS2812
pin: ${GPIO_HMI_LED}
num_leds: 1
# rmt_channel only for Arduino Framework (to be removed with ESP-IDF Framwork)
# rmt_channel: 0
internal: True
#restore_mode: ALWAYS_ON
effects:
- strobe:
name: "Red Purple Shading"
colors:
- state: true
brightness: 80%
red: 100%
green: 0%
blue: 0%
duration: 500ms
- state: false
duration: 250ms
- state: true
brightness: 80%
red: 100%
green: 0%
blue: 85%
duration: 500ms
- strobe:
name: "Red Shading"
colors:
- state: true
brightness: 80%
red: 100%
green: 80%
blue: 80%
duration: 500ms
- state: false
duration: 250ms
- state: true
brightness: 80%
red: 100%
green: 0%
blue: 0%
duration: 500ms
- strobe:
name: "Blue Purple Shading"
colors:
- state: true
brightness: 80%
red: 0%
green: 0%
blue: 100%
duration: 500ms
- state: false
duration: 250ms
- state: true
brightness: 80%
red: 100%
green: 0%
blue: 85%
duration: 500ms
- strobe:
name: "Blue Shading"
colors:
- state: true
brightness: 80%
red: 60%
green: 60%
blue: 100%
duration: 500ms
- state: false
duration: 250ms
- state: true
brightness: 80%
red: 0%
green: 0%
blue: 100%
duration: 500ms
- strobe:
name: "White Purple Shading"
colors:
- state: true
brightness: 80%
red: 100%
green: 100%
blue: 100%
duration: 500ms
- state: false
duration: 250ms
- state: true
brightness: 80%
red: 100%
green: 0%
blue: 85%
duration: 500ms
- strobe:
name: "White Shading"
colors:
- state: true
brightness: 80%
red: 80%
green: 80%
blue: 80%
duration: 500ms
- state: false
duration: 250ms
- state: true
brightness: 80%
red: 100%
green: 100%
blue: 100%
duration: 500ms
web_server:
sorting_group_id: sorting_group_System
# HMI display
font:
- file: "Font/arial.ttf"
id: FContent
size: 10
- file: "Font/arialbd.ttf"
id: FTitle
size: 12
display:
- platform: st7920
spi_id: spi_bus0
cs_pin:
number: ${GPIO_CS_Display}
inverted: True
mode: OUTPUT
width: 128
height: 64
id: onboard_display
update_interval: 700ms
data_rate: 200kHz
# Pages organization :
# - 0 --> 5 : Intensity and voltage measurment for each ATM90E32 chip
# - 10 --> 15 : Power measurment for each ATM90E32 chip
# - 20 : Linky energy index
# - 21 --> 26 : Energy index for each ATM90E32 chip
# - 30 : Meters A, B and C data
# - 40 --> 41 : Multiusage IO A and B data
# - 90 --> 91 : System informations
lambda: |-
switch (id(display_page)){
// This page shows the measure of chip A
case 0:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}1>3");
it.print(62, 2, id(FTitle), "V");
it.print(115, 2, id(FTitle), "A");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterA_Ch01}");
it.printf(56, 21, id(FContent), "%3.0f", id(MeteringChipA_Ch01_voltage).state);
it.printf(92, 21, id(FContent), "%2.1f", id(MeteringChipA_Ch01_current).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterA_Ch02}");
it.printf(56, 36, id(FContent), "%3.0f", id(MeteringChipA_Ch02_voltage).state);
it.printf(92, 36, id(FContent), "%2.1f", id(MeteringChipA_Ch02_current).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterA_Ch03}");
it.printf(56, 51, id(FContent), "%3.0f", id(MeteringChipA_Ch03_voltage).state);
it.printf(92, 51, id(FContent), "%2.1f", id(MeteringChipA_Ch03_current).state);
break;
// This page shows the measure of chip B
case 1:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}4>6");
it.print(67, 2, id(FTitle), "V");
it.print(105, 2, id(FTitle), "A");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterB_Ch01}");
it.printf(56, 21, id(FContent), "%3.0f", id(MeteringChipB_Ch01_voltage).state);
it.printf(92, 21, id(FContent), "%2.1f", id(MeteringChipB_Ch01_current).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterB_Ch02}");
it.printf(56, 36, id(FContent), "%3.0f", id(MeteringChipB_Ch02_voltage).state);
it.printf(92, 36, id(FContent), "%2.1f", id(MeteringChipB_Ch02_current).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterB_Ch03}");
it.printf(56, 51, id(FContent), "%3.0f", id(MeteringChipB_Ch03_voltage).state);
it.printf(92, 51, id(FContent), "%2.1f", id(MeteringChipB_Ch03_current).state);
break;
break;
// This page shows the measure of chip C
case 2:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}7>9");
it.print(67, 2, id(FTitle), "V");
it.print(105, 2, id(FTitle), "A");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterC_Ch01}");
it.printf(56, 21, id(FContent), "%3.0f", id(MeteringChipC_Ch01_voltage).state);
it.printf(92, 21, id(FContent), "%2.1f", id(MeteringChipC_Ch01_current).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterC_Ch02}");
it.printf(56, 36, id(FContent), "%3.0f", id(MeteringChipC_Ch02_voltage).state);
it.printf(92, 36, id(FContent), "%2.1f", id(MeteringChipC_Ch02_current).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterC_Ch03}");
it.printf(56, 51, id(FContent), "%3.0f", id(MeteringChipC_Ch03_voltage).state);
it.printf(92, 51, id(FContent), "%2.1f", id(MeteringChipC_Ch03_current).state);
break;
// This page shows the measure of chip D
case 3:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}10>12");
it.print(67, 2, id(FTitle), "V");
it.print(105, 2, id(FTitle), "A");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterD_Ch01}");
it.printf(56, 21, id(FContent), "%3.0f", id(MeteringChipD_Ch01_voltage).state);
it.printf(92, 21, id(FContent), "%2.1f", id(MeteringChipD_Ch01_current).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterD_Ch02}");
it.printf(56, 36, id(FContent), "%3.0f", id(MeteringChipD_Ch02_voltage).state);
it.printf(92, 36, id(FContent), "%2.1f", id(MeteringChipD_Ch02_current).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterD_Ch03}");
it.printf(56, 51, id(FContent), "%3.0f", id(MeteringChipD_Ch03_voltage).state);
it.printf(92, 51, id(FContent), "%2.1f", id(MeteringChipD_Ch03_current).state);
break;
// This page shows the measure of chip E
case 4:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}13>15");
it.print(67, 2, id(FTitle), "V");
it.print(105, 2, id(FTitle), "A");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterE_Ch01}");
it.printf(56, 21, id(FContent), "%3.0f", id(MeteringChipE_Ch01_voltage).state);
it.printf(92, 21, id(FContent), "%2.1f", id(MeteringChipE_Ch01_current).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterE_Ch02}");
it.printf(56, 36, id(FContent), "%3.0f", id(MeteringChipE_Ch02_voltage).state);
it.printf(92, 36, id(FContent), "%2.1f", id(MeteringChipE_Ch02_current).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterE_Ch03}");
it.printf(56, 51, id(FContent), "%3.0f", id(MeteringChipE_Ch03_voltage).state);
it.printf(92, 51, id(FContent), "%2.1f", id(MeteringChipE_Ch03_current).state);
break;
// This page shows the measure of chip F
case 5:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}16>18");
it.print(67, 2, id(FTitle), "V");
it.print(105, 2, id(FTitle), "A");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterF_Ch01}");
it.printf(56, 21, id(FContent), "%3.0f", id(MeteringChipF_Ch01_voltage).state);
it.printf(92, 21, id(FContent), "%2.1f", id(MeteringChipF_Ch01_current).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterF_Ch02}");
it.printf(56, 36, id(FContent), "%3.0f", id(MeteringChipF_Ch02_voltage).state);
it.printf(92, 36, id(FContent), "%2.1f", id(MeteringChipF_Ch02_current).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterF_Ch03}");
it.printf(56, 51, id(FContent), "%3.0f", id(MeteringChipF_Ch03_voltage).state);
it.printf(92, 51, id(FContent), "%2.1f", id(MeteringChipF_Ch03_current).state);
break;
// This page shows the measure of chip A
case 6 ... 10:
if (id(display_page) >= 6 && id(display_page) < 10) {
id(display_page) = 10;
}
it.print(0, 2, id(FTitle), "${PageTitleMeasure}1>3");
it.print(95, 2, id(FTitle), "W");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterA_Ch01}");
it.printf(66, 21, id(FContent), "%5.0f", id(MeteringChipA_Ch01_power).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterA_Ch02}");
it.printf(66, 36, id(FContent), "%5.0f", id(MeteringChipA_Ch02_power).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterA_Ch03}");
it.printf(66, 51, id(FContent), "%5.0f", id(MeteringChipA_Ch03_power).state);
break;
// This page shows the measure of chip B
case 11:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}4>6");
it.print(95, 2, id(FTitle), "W");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterB_Ch01}");
it.printf(66, 21, id(FContent), "%5.0f", id(MeteringChipB_Ch01_power).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterB_Ch02}");
it.printf(66, 36, id(FContent), "%5.0f", id(MeteringChipB_Ch02_power).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterB_Ch03}");
it.printf(66, 51, id(FContent), "%5.0f", id(MeteringChipB_Ch03_power).state);
break;
break;
// This page shows the measure of chip C
case 12:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}7>9");
it.print(95, 2, id(FTitle), "W");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterC_Ch01}");
it.printf(66, 21, id(FContent), "%5.0f", id(MeteringChipC_Ch01_power).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterC_Ch02}");
it.printf(66, 36, id(FContent), "%5.0f", id(MeteringChipC_Ch02_power).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterC_Ch03}");
it.printf(66, 51, id(FContent), "%5.0f", id(MeteringChipC_Ch03_power).state);
break;
// This page shows the measure of chip D
case 13:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}10>12");
it.print(95, 2, id(FTitle), "W");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterD_Ch01}");
it.printf(66, 21, id(FContent), "%5.0f", id(MeteringChipD_Ch01_power).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterD_Ch02}");
it.printf(66, 36, id(FContent), "%5.0f", id(MeteringChipD_Ch02_power).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterD_Ch03}");
it.printf(66, 51, id(FContent), "%5.0f", id(MeteringChipD_Ch03_power).state);
break;
// This page shows the measure of chip E
case 14:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}13>15");
it.print(95, 2, id(FTitle), "W");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterE_Ch01}");
it.printf(66, 21, id(FContent), "%5.0f", id(MeteringChipE_Ch01_power).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterE_Ch02}");
it.printf(66, 36, id(FContent), "%5.0f", id(MeteringChipE_Ch02_power).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterE_Ch03}");
it.printf(66, 51, id(FContent), "%5.0f", id(MeteringChipE_Ch03_power).state);
break;
// This page shows the measure of chip F
case 15:
it.print(0, 2, id(FTitle), "${PageTitleMeasure}16>18");
it.print(95, 2, id(FTitle), "W");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterF_Ch01}");
it.printf(66, 21, id(FContent), "%5.0f", id(MeteringChipF_Ch01_power).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterF_Ch02}");
it.printf(66, 36, id(FContent), "%5.0f", id(MeteringChipF_Ch02_power).state);
it.line(10, 49, 118, 49);
it.print(0, 51, id(FContent), "${NameMeterF_Ch03}");
it.printf(66, 51, id(FContent), "%5.0f", id(MeteringChipF_Ch03_power).state);
break;
// This page shows the total energy from electrical meter (TIC informations)
case 16 ... 20:
if (id(display_page) >= 16 && id(display_page) < 20) {
id(display_page) = 20;
}
it.print(0, 2, id(FTitle), "${PageTitleEnergy}");
it.print(102, 2, id(FTitle), "kWh");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FTitle), "HC");
it.printf(40, 21, id(FContent), "%10.0f", id(TIC_HCHC).state);
it.print(0, 36, id(FTitle), "HP");
it.printf(40, 36, id(FContent), "%10.0f", id(TIC_HCHP).state);
break;
// This page shows the total energy for chip A
case 21:
it.print(0, 2, id(FTitle), "${PageTitleEnergy}1>3");
it.print(92, 2, id(FTitle), "kWh/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterA_Ch01}");
it.printf(56, 21, id(FContent), "%8.0f", id(MeteringChipA_Ch01_Energy).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterA_Ch02}");
it.printf(56, 36, id(FContent), "%8.0f", id(MeteringChipA_Ch02_Energy).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterA_Ch03}");
it.printf(56, 51, id(FContent), "%8.0f", id(MeteringChipA_Ch03_Energy).state);
break;
// This page shows the total energy for chip B
case 22:
it.print(0, 2, id(FTitle), "${PageTitleEnergy}4>6");
it.print(92, 2, id(FTitle), "kWh/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterB_Ch01}");
it.printf(56, 21, id(FContent), "%8.0f", id(MeteringChipB_Ch01_Energy).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterB_Ch02}");
it.printf(56, 36, id(FContent), "%8.0f", id(MeteringChipB_Ch02_Energy).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterB_Ch03}");
it.printf(56, 51, id(FContent), "%8.0f", id(MeteringChipB_Ch03_Energy).state);
break;
// This page shows the total energy for chip C
case 23:
it.print(0, 2, id(FTitle), "${PageTitleEnergy}6>9");
it.print(92, 2, id(FTitle), "kWh/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterC_Ch01}");
it.printf(56, 21, id(FContent), "%8.0f", id(MeteringChipC_Ch01_Energy).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterC_Ch02}");
it.printf(56, 36, id(FContent), "%8.0f", id(MeteringChipC_Ch02_Energy).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterC_Ch03}");
it.printf(56, 51, id(FContent), "%8.0f", id(MeteringChipC_Ch03_Energy).state);
break;
// This page shows the total energy for chip D
case 24:
it.print(0, 2, id(FTitle), "${PageTitleEnergy}9>12");
it.print(92, 2, id(FTitle), "kWh/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterD_Ch01}");
it.printf(56, 21, id(FContent), "%8.0f", id(MeteringChipD_Ch01_Energy).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterD_Ch02}");
it.printf(56, 36, id(FContent), "%8.0f", id(MeteringChipD_Ch02_Energy).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterD_Ch03}");
it.printf(56, 51, id(FContent), "%8.0f", id(MeteringChipD_Ch03_Energy).state);
break;
// This page shows the total energy for chip E
case 25:
it.print(0, 2, id(FTitle), "${PageTitleEnergy}13>15");
it.print(92, 2, id(FTitle), "kWh/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterE_Ch01}");
it.printf(56, 21, id(FContent), "%8.0f", id(MeteringChipE_Ch01_Energy).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterE_Ch02}");
it.printf(56, 36, id(FContent), "%8.0f", id(MeteringChipE_Ch02_Energy).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterE_Ch03}");
it.printf(56, 51, id(FContent), "%8.0f", id(MeteringChipE_Ch03_Energy).state);
break;
// This page shows the total energy for chip F
case 26:
it.print(0, 2, id(FTitle), "${PageTitleEnergy}16>18");
it.print(92, 2, id(FTitle), "kWh/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameMeterF_Ch01}");
it.printf(56, 21, id(FContent), "%8.0f", id(MeteringChipF_Ch01_Energy).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameMeterF_Ch02}");
it.printf(56, 36, id(FContent), "%8.0f", id(MeteringChipF_Ch02_Energy).state);
it.line(10, 49, 118, 49);
it.printf(0, 51, id(FContent), "${NameMeterF_Ch03}");
it.printf(56, 51, id(FContent), "%8.0f", id(MeteringChipF_Ch03_Energy).state);
break;
// This page shows the 3 TOR counters data
case 27 ... 30:
if (id(display_page) >= 27 && id(display_page) < 30) {
id(display_page) = 30;
}
it.print(0, 2, id(FTitle), "${PageTitleCounter}");
it.print(32, 2, id(FTitle), "L/min");
it.print(80, 2, id(FTitle), "M3/J");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameCounterA}");
it.printf(50, 21, id(FContent), "%2.2f", id(counter_a).state);
it.printf(84, 21, id(FContent), "%5.2f", id(counter_a_total).state);
it.line(10, 34, 118, 34);
it.print(0, 36, id(FContent), "${NameCounterB}");
it.printf(50, 36, id(FContent), "%2.2f", id(counter_b).state);
it.printf(84, 36, id(FContent), "%5.3f", id(counter_b_total).state);
// Tip : add id( . . ).state to forward the value to the display
// it.line(10, 49, 118, 49);
// it.print(0, 51, id(FContent), "${NameCounterC}");
// it.printf(50, 51, id(FContent), "%2.2f", counter_c);
// it.printf(80, 51, id(FContent), "%5.3f", counter_c_total);
break;
// This page shows the 2 multiusage I/O data
case 31 ... 40:
if (id(display_page) >= 31 && id(display_page) < 40) {
id(display_page) = 40;
}
it.print(0, 2, id(FTitle), "${PageTitleMultiusageIO_A}");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameIOA}");
it.printf(4, 33, id(FContent), "%6.2f %%", id(IOA_Humidity).state);
it.printf(62, 33, id(FContent), "%6.2f °C", id(IOA_Temperature).state);
break;
case 41:
it.print(0, 2, id(FTitle), "${PageTitleMultiusageIO_B}");
it.line(10, 19, 118, 19);
it.print(0, 20, id(FContent), "${NameIOB_01}");
it.printf(72, 20, id(FContent), "%6.2f °C", id(IOB_Temperature_01).state);
it.print(0, 31, id(FContent), "${NameIOB_02}");
it.printf(72, 31, id(FContent), "%6.2f °C", id(IOB_Temperature_02).state);
it.print(0, 42, id(FContent), "${NameIOB_03}");
it.printf(72, 42, id(FContent), "%6.2f °C", id(IOB_Temperature_03).state);
it.print(0, 53, id(FContent), "${NameIOB_04}");
it.printf(72, 53, id(FContent), "%6.2f °C", id(IOB_Temperature_04).state);
break;
// This page shows the system information
case 42 ... 90:
if (id(display_page) >= 42 && id(display_page) < 90) {
id(display_page) = 90;
}
it.print(0, 2, id(FTitle), "${PageTitleSystem}");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameIPAddr}");
if(strcmp(id(lan0_ip_addr).state.c_str(), "0.0.0.0") != 0) {
it.printf(25, 21, id(FContent), "%20s", id(lan0_ip_addr).state.c_str());
}
else {
it.printf(25, 21, id(FContent), "${Unconnected_Message}");
}
it.print(0, 33, id(FContent), "${NameMACAddr}");
it.printf(25, 33, id(FContent), "%20s", id(lan0_mac_addr).state.c_str());
it.line(10, 46, 118, 46);
it.print(0, 48, id(FContent), "${NameUptime}");
it.printf(25, 48, id(FContent), "%20s", id(sys_uptime_txt).state.c_str());
break;
case 91:
it.print(0, 2, id(FTitle), "${PageTitleTIC}");
it.print(82, 2, id(FTitle), "${NameTICCurrentD}");
it.line(10, 19, 118, 19);
it.print(0, 21, id(FContent), "${NameTICColor}");
it.printf(62, 21, id(FContent), "%6s", id(TIC_PTEC).state.c_str());
it.line(10, 46, 118, 46);
it.print(0, 48, id(FContent), "${NameTIC_ADCO}");
it.printf(0, 48, id(FContent), "%20s", id(TIC_ADCO).state.c_str());
break;
// Turn off display
case -1:
id(onboard_display).clear();
break;
default:
id(display_page) = 0;
break;
}
# Script section
script:
# This script turn off backlight automaticatly
- id: display_backlight_auto_off_timer
then:
- delay: ${DisplayTurnOffDelay}
- light.turn_off:
id: display_backlight
transition_length: 5s
- lambda: |-
id(display_page)= -1;
# Interval actions section
interval:
# This interval is used for animating onboard LED in function of the tariff period
- interval: 10s
then:
- if:
condition:
lambda: 'return strcmp("HPJR",id(TIC_PTEC).state.c_str()) == 0 || strcmp("HP..",id(TIC_PTEC).state.c_str()) == 0;'
then:
- light.turn_on:
id: Status_LED
effect: "Red Purple Shading"
- if:
condition:
lambda: 'return strcmp("HCJR",id(TIC_PTEC).state.c_str()) == 0;'
then:
- light.turn_on:
id: Status_LED
effect: "Red Shading"
- if:
condition:
lambda: 'return strcmp("HPJB",id(TIC_PTEC).state.c_str()) == 0;'
then:
- light.turn_on:
id: Status_LED
effect: "Blue Purple Shading"
- if:
condition:
lambda: 'return strcmp("HCJB",id(TIC_PTEC).state.c_str()) == 0 || strcmp("HC..",id(TIC_PTEC).state.c_str()) == 0;'
then:
- light.turn_on:
id: Status_LED
effect: "Blue Shading"
- if:
condition:
lambda: 'return strcmp("HPJB",id(TIC_PTEC).state.c_str()) == 0;'
then:
- light.turn_on:
id: Status_LED
effect: "White Purple Shading"
- if:
condition:
lambda: 'return strcmp("HCJB",id(TIC_PTEC).state.c_str()) == 0;'
then:
- light.turn_on:
id: Status_LED
effect: "White Shading"
Quelques photos du produit fini (ici les TC n’étaient pas encore raccordés) :
