Witam.
Prosze mi wybaczyc, jestem raczej nowy i mam problem z custom_component.
zmienilem lokalozacje pliku i dodalem:
external_components:
source:
do regulacji obotow wentylatora uzywalem:
dimmer
platform: custom
Jednak w tym miejscu wywala blad nie nie wiem jak to zmodyfikowac aby znowu dzialalo.
fan:
platform: speed
do zmiany wartosci uzywam w kodzie lambda
id(fan1).turn_on().set_speed(id(fan1_mem)).perform();
2 dni kombinuje i nie wiem jak to ugrysc
link do sciemniacza
szopen
13 Październik 2025 14:41
2
Jak prawidłowo zamieszczać YAML, inny kod lub logi w postach na forum
bez konkretów co dostałeś (zamieść pliki spakowane do zip) w ogóle nie ma dalszej rozmowy
Za bardzo nabierasz wody w usta, ale chyba chodzi o urządzenie ESPHome, a nie o HA…
Co producent na to? kontaktowałeś się z nim? ma jakieś repozytorium?
plik od producenta wyglada tak:
typ#include "esphome.h"
using namespace esphome;
class MyCustomFloatOutput : public Component, public FloatOutput {
public:
int i2c_addr;
const int ch_addr[4] = {128, 129, 130, 131}; //AC dimmer channels
int channel; // from 0 to -3
int error;
bool debug;
void setup() override {
debug = 0; // set debug off/on
i2c_addr = 39; // set i2c address
Wire.begin();
Wire.beginTransmission(i2c_addr);
for (int i = 0; i < 4; i++){ // loop through all channels
Wire.write( ch_addr[i] );
Wire.write(100); //off
}
error = Wire.endTransmission();
if (debug == 1){log_err(error);} //debug
}
void write_state(float state) override { // state is the amount this output should be on, from 0.0 to 1.0
int value = state * 1024; // convert it to an integer first
value = map(value, 0, 1024, 100, 0); //convert to 0-100%
Wire.beginTransmission(i2c_addr);
Wire.write( ch_addr[channel] );
Wire.write(value);
Wire.endTransmission();
error = Wire.endTransmission();
if (debug == 1){log_err(error);}
}
void log_err(int error){
if (error==0){ ESP_LOGD ("custom", "I2C Transmissio: success");} // 0: success.
else if (error==1){ ESP_LOGD ("custom", "I2C Transmissio: data too long to fit in transmit buffer");} // 1: data too long to fit in transmit buffer.
else if (error==2){ ESP_LOGD("custom", "I2C Transmissio: received NACK on transmit of address");} // 2: received NACK on transmit of address.
else if (error==3){ ESP_LOGD("custom", "I2C Transmissio: received NACK on transmit of data");} // 3: received NACK on transmit of data.
else if (error==4){ ESP_LOGD("custom", "I2C Transmissio: other error");} // 4: other error.
else if (error==5){ ESP_LOGD("custom", "I2C Transmissio: timeout");} // 5: timeout
}
};
moj program sluzy do obslugi wentylacji a to kod
# zmienne globalne
globals:
- id: home_temp_target
type: float
restore_value: no
initial_value: '26.0'
- id: temp_target
type: float
restore_value: no
initial_value: '0'
- id: humidity_target
type: float
restore_value: no
initial_value: '65'
- id: mode_temp
type: int
restore_value: no
initial_value: '0'
- id: mode_mem
type: int
restore_value: no
initial_value: '0'
- id: mode_set
type: int
restore_value: no
initial_value: '0'
- id: mode_set_mem
type: int
restore_value: no
initial_value: '0'
- id: hp_mem
type: int
restore_value: no
initial_value: '0'
- id: hp_timer
type: int
restore_value: no
initial_value: '0'
- id: hold
type: int
restore_value: no
initial_value: '0'
- id: timer
type: int
restore_value: no
initial_value: '0'
- id: valvetime
type: int
restore_value: no
initial_value: '180'
- id: fan1_speed
type: int
restore_value: no
initial_value: '0'
- id: fan_min_speed
type: int
restore_value: no
initial_value: '10'
- id: fan1_mem
type: int
restore_value: no
initial_value: '-1'
- id: fan2_speed
type: int
restore_value: no
initial_value: '0'
- id: fan2_mem
type: int
restore_value: no
initial_value: '-1'
- id: fan3_speed
type: int
restore_value: no
initial_value: '0'
- id: fan3_mem
type: int
restore_value: no
initial_value: '-1'
- id: fan4_speed
type: int
restore_value: no
initial_value: '0'
- id: fan4_mem
type: int
restore_value: no
initial_value: '-1'
esphome:
name: ventilation
external_components:
- source:
type: local
path: my_components
esp32:
board: wt32-eth01
framework:
type: arduino
# Enable logging
logger:
ota:
- platform: esphome
password: "******"
ethernet:
type: LAN8720
mdc_pin: GPIO23
mdio_pin: GPIO18
clk_mode: GPIO0_IN
phy_addr: 1
power_pin: GPIO16
web_server:
port: 80
mqtt:
broker: !secret mqtt_broker
port: 1883
username: !secret mqtt_username
password: !secret mqtt_password
i2c:
sda: GPIO2
scl: GPIO4
scan: True
pcf8574:
- id: 'pcb1'
address: 0x26
time:
- platform: sntp
id: sntp_time
binary_sensor:
- platform: gpio
pin:
number: GPIO36
mode:
input: true
inverted: true
filters:
- delayed_on: 250ms
- delayed_off: 250ms
name: "Heat Pump Switch"
id: hp_switch
icon: mdi:heat-pump-outline
- platform: gpio
pin:
number: GPIO39
mode:
input: true
inverted: true
filters:
- delayed_on: 1000ms
- delayed_off: 1000ms
name: "Air Filter Switch"
id: airfilterswitch
icon: mdi:air-filter
#czujniki temperatur
sensor:
- platform: template
name: "Target Temperature"
icon: mdi:home-thermometer-outline
update_interval: 60s
unit_of_measurement: "°C"
device_class: "temperature"
state_class: "measurement"
accuracy_decimals: 1
lambda: 'return id(temp_target);'
- platform: dht
pin: GPIO15
model: DHT22
temperature:
name: "Outdoor Temperature"
id: temp_outdoor
filters:
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: "Outdoor Humidity"
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: dht
pin: GPIO33
model: DHT22
temperature:
name: "Home Temperature"
id: temp_home
filters:
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: "Home Humidity"
id: humidity
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: dht
pin: GPIO14
model: DHT22
temperature:
name: "Supply Temperature"
id: temp_supply
filters:
- calibrate_linear:
- 0.0 -> 0.0
- 27.5 -> 25.5
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: "Supply Humidity"
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: dht
pin: GPIO32
model: DHT22
temperature:
name: "Exhaust Temperature"
id: temp_exhaust
filters:
- calibrate_linear:
- 0.0 -> 0.0
- 27.5 -> 25.5
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: "Exhaust Humidity"
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: template
id: time_minutes
lambda: |-
auto time = id(sntp_time).now();
return time.hour * 60 + time.minute;
# przekaźniki
switch:
- platform: restart
name: "Ventilation REBOOT"
id: restart_pcb
- platform: gpio
name: "Valve 1"
id: valve1
icon: mdi:valve
pin:
pcf8574: pcb1
number: 7
mode: OUTPUT
inverted: True
- platform: gpio
name: "Valve 2"
id: valve2
icon: mdi:valve
pin:
pcf8574: pcb1
number: 6
mode: OUTPUT
inverted: True
- platform: gpio
name: "Valve 3"
id: valve3
icon: mdi:valve
pin:
pcf8574: pcb1
number: 5
mode: OUTPUT
inverted: True
- platform: gpio
name: "Valve 4"
id: valve4
icon: mdi:valve
pin:
pcf8574: pcb1
number: 4
mode: OUTPUT
inverted: True
- platform: gpio
name: "Valve Supply"
id: valvesupply
icon: mdi:lightning-bolt-outline
pin:
pcf8574: pcb1
number: 3
mode: OUTPUT
inverted: True
- platform: gpio
name: "Valve 5"
id: valve5
icon: mdi:valve
pin:
pcf8574: pcb1
number: 2
mode: OUTPUT
inverted: True
- platform: gpio
name: "Ionizer"
icon: mdi:air-filter
id: ionizer
pin:
pcf8574: pcb1
number: 1
mode: OUTPUT
inverted: True
- platform: gpio
name: "Dirty Filter"
id: dirtyfilter
icon: mdi:air-filter
pin:
pcf8574: pcb1
number: 0
mode: OUTPUT
inverted: True
#dimmer
output:
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 3;
return {my_custom_float_output};
outputs:
id: ch_1
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 2;
return {my_custom_float_output};
outputs:
id: ch_2
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 1;
return {my_custom_float_output};
outputs:
id: ch_3
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 0;
return {my_custom_float_output};
outputs:
id: ch_4
fan:
- platform: speed
output: ch_1
name: "4ch 1"
id: fan1
- platform: speed
output: ch_2
name: "4ch 2"
id: fan2
- platform: speed
output: ch_3
name: "4ch 3"
id: fan3
- platform: speed
output: ch_4
name: "4ch 4"
id: fan4
text_sensor:
- platform: template
name: "Ventilation Mode"
icon: mdi:air-filter
id: mode
update_interval: 1s
# automatyzacja wykonywana cyklicznie
interval:
- interval: 1s
then:
# zasilanie zaworów jeśli nastąpi zmiana trybu
- lambda: |-
if (id(mode_set) != id(mode_set_mem) ) {
if ( id(mode_set_mem) == 0 ) { id(hold) = 2; }
id(mode_set_mem)=id(mode_set);
id(timer) = id(valvetime);
id(valvesupply).turn_on();
}
if ( id(valvesupply).state ) {
if (id(timer) > 0) {
id(timer) = id(timer) - 1 ;
}else{
id(valvesupply).turn_off();
}
}else{
if ( id(valve1).state ) { id(valve1).turn_off(); }
if ( id(valve2).state ) { id(valve2).turn_off(); }
if ( id(valve3).state ) { id(valve3).turn_off(); }
if ( id(valve4).state ) { id(valve4).turn_off(); }
if ( id(valve5).state ) { id(valve5).turn_off(); }
}
- interval: 1s
then:
# zmiana szybkości wentylatorów
- lambda: |-
if (id(fan1_speed) > id(fan1_mem) ) {
if (id(fan1_speed) < id(fan_min_speed) ) {
id(fan1_mem)=0;
id(fan1_speed)=0;
id(fan1).turn_off().perform();
}
if (id(fan1_speed) >= id(fan_min_speed) ) {
id(fan1_mem)=id(fan1_mem)+1;
if (id(fan1_mem) < id(fan_min_speed) ) { id(fan1_mem)=id(fan_min_speed); }
id(fan1).turn_on().set_speed(id(fan1_mem)).perform();
}
}
if (id(fan1_speed) < id(fan1_mem) ) {
if (id(fan1_speed) < id(fan_min_speed) ) {
id(fan1_mem)=0;
id(fan1_speed)=0;
id(fan1).turn_off().perform();
}
if (id(fan1_speed) >= id(fan_min_speed) ) {
id(fan1_mem)=id(fan1_mem)-1;
id(fan1).turn_on().set_speed(id(fan1_mem)).perform();
}
}
if (id(fan2_speed) > id(fan2_mem) ) {
if (id(fan2_speed) < id(fan_min_speed) ) {
id(fan2_mem)=0;
id(fan2_speed)=0;
id(fan2).turn_off().perform();
}
if (id(fan2_speed) >= id(fan_min_speed) ) {
id(fan2_mem)=id(fan2_mem)+1;
if (id(fan2_mem) < id(fan_min_speed) ) { id(fan2_mem)=id(fan_min_speed); }
id(fan2).turn_on().set_speed(id(fan2_mem)).perform();
}
}
if (id(fan2_speed) < id(fan2_mem) ) {
if (id(fan2_speed) < id(fan_min_speed) ) {
id(fan2_mem)=0;
id(fan2_speed)=0;
id(fan2).turn_off().perform();
}
if (id(fan2_speed) >= id(fan_min_speed) ) {
id(fan2_mem)=id(fan2_mem)-1;
id(fan2).turn_on().set_speed(id(fan2_mem)).perform();
}
}
if (id(fan3_speed) > id(fan3_mem) ) {
if (id(fan3_speed) < id(fan_min_speed) ) {
id(fan3_mem)=0;
id(fan3_speed)=0;
id(fan3).turn_off().perform();
}
if (id(fan3_speed) >= id(fan_min_speed) ) {
id(fan3_mem)=id(fan3_mem)+1;
if (id(fan3_mem) < id(fan_min_speed) ) { id(fan3_mem)=id(fan_min_speed); }
id(fan3).turn_on().set_speed(id(fan3_mem)).perform();
}
}
if (id(fan3_speed) < id(fan3_mem) ) {
if (id(fan3_speed) < id(fan_min_speed) ) {
id(fan3_mem)=0;
id(fan3_speed)=0;
id(fan3).turn_off().perform();
}
if (id(fan3_speed) >= id(fan_min_speed) ) {
id(fan3_mem)=id(fan3_mem)-1;
id(fan3).turn_on().set_speed(id(fan3_mem)).perform();
}
}
if (id(fan4_speed) > id(fan4_mem) ) {
if (id(fan4_speed) < id(fan_min_speed) ) {
id(fan4_mem)=0;
id(fan4_speed)=0;
id(fan4).turn_off().perform();
}
if (id(fan4_speed) >= id(fan_min_speed) ) {
id(fan4_mem)=id(fan4_mem)+1;
if (id(fan4_mem) < id(fan_min_speed) ) { id(fan4_mem)=id(fan_min_speed); }
id(fan4).turn_on().set_speed(id(fan4_mem)).perform();
}
}
if (id(fan4_speed) < id(fan4_mem) ) {
if (id(fan4_speed) < id(fan_min_speed) ) {
id(fan4_mem)=0;
id(fan4_speed)=0;
id(fan4).turn_off().perform();
}
if (id(fan4_speed) >= id(fan_min_speed) ) {
id(fan4_mem)=id(fan4_mem)-1;
id(fan4).turn_on().set_speed(id(fan4_mem)).perform();
}
}
- interval: 1s
then:
# Reset timera po włączeniu pompy ciepła
- lambda: |-
if (id(hp_switch).state ) {
if ( id(hp_timer) == 0 ) { id(hold) = 0; }
id(hp_timer) = 300;
}
- interval: 10s
then:
# kontrolka brudnego filtra
- lambda: |-
if (id(airfilterswitch).state ) {
id(dirtyfilter).turn_on();
}
# Jonizator
- lambda: |-
if (id(fan1).state ) {
if (id(ionizer).state) {
}else{
id(ionizer).turn_on();
}
}else{
if (id(ionizer).state) {
id(ionizer).turn_off();
}
}
- interval: 60s
then:
# Ustalenie temperatury docelowej i trybu pracy
- lambda: |-
if (id(time_minutes).state > 480 && id(time_minutes).state < 1380 ) {
id(temp_target)=id(home_temp_target);
}else{
id(temp_target)=id(home_temp_target) - 1;
}
if (id(mode_set) == 3) { id(temp_target)=id(home_temp_target) - 2; }
id(mode_temp) = 1;
if (id(temp_home).state < id(temp_target) && id(temp_outdoor).state > id(temp_home).state + 3) {id(mode_temp) = 6;}
if (id(temp_home).state > id(temp_target) && id(temp_outdoor).state < id(temp_home).state - 3) {id(mode_temp) = 6;}
if (id(temp_home).state > id(temp_target) + 0.5 && id(temp_outdoor).state < id(temp_home).state - 3) {id(mode_temp) = 8;}
if (id(temp_home).state > id(temp_target) + 1 && id(temp_outdoor).state < id(temp_home).state - 3) {id(mode_temp) = 9;}
if (id(hp_timer) > 0) {
id(mode_temp) = 3;
if (id(temp_home).state > id(temp_target)) {id(mode_temp) = 4;}
if (id(temp_home).state > id(temp_target) && id(temp_outdoor).state < id(temp_home).state -10) {id(mode_temp) = 5;}
}
if (id(humidity).state > id(humidity_target)) {
if (id(mode_temp) == 1) {id(mode_temp) = 1;}
if (id(mode_temp) == 6) {id(mode_temp) = 7;}
if (id(mode_temp) == 8) {id(mode_temp) = 9;}
if (id(mode_temp) == 3) {id(mode_temp) = 3;}
}
if (id(mode_temp) == 1 && id(temp_outdoor).state < 5) {id(mode_temp) = 11;}
# Opóźnienie zmiany trybu pracy
- lambda: |-
if (id(mode_temp) == id(mode_mem)) {
id(hold) = 15;
}else{
id(hold) = id(hold) - 1;
}
if (id(hp_timer) > 0) {
if (id(hp_mem) == 0) {
id(hp_mem) = 1;
id(hold) = 0;
}
}else{
if (id(hp_mem) == 1) {
id(hp_mem) = 0;
id(hold) = 0;
}
}
# Zmiana trybu pracy
- lambda: |-
if (id(mode_temp) != id(mode_mem) && id(hold) < 1) {
id(mode_mem) = id(mode_temp);
id(hold) = 15;
switch (id(mode_temp)) {
case 1:
id(mode).publish_state("Heat Recovery - Eco");
id(mode_set)=1;
id(fan1_speed)=25;
id(fan2_speed)=25;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
case 2:
id(mode).publish_state("Heat Recovery - Max");
id(mode_set)=1;
id(fan1_speed)=100;
id(fan2_speed)=100;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
case 3:
id(mode).publish_state("Heat Pump & Recovery - Eco");
id(mode_set)=2;
id(fan1_speed)=25;
id(fan2_speed)=15;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
case 4:
id(mode).publish_state("Heat Pump - Cooling");
id(mode_set)=3;
id(fan1_speed)=100;
id(fan2_speed)=0;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
case 5:
id(mode).publish_state("Heat Pump - By-pass");
id(mode_set)=4;
id(fan1_speed)=100;
id(fan2_speed)=0;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
case 6:
id(mode).publish_state("By-pass - Eco");
id(mode_set)=4;
id(fan1_speed)=40;
id(fan2_speed)=0;
id(fan3_speed)=25;
id(fan4_speed)=0;
break;
case 7:
id(mode).publish_state("By-pass - Max");
id(mode_set)=4;
id(fan1_speed)=100;
id(fan2_speed)=0;
id(fan3_speed)=50;
id(fan4_speed)=0;
break;
case 8:
id(mode).publish_state("Cooling By-pass");
id(mode_set)=4;
id(fan1_speed)=75;
id(fan2_speed)=0;
id(fan3_speed)=30;
id(fan4_speed)=0;
break;
case 9:
id(mode).publish_state("Cooling By-pass - Max");
id(mode_set)=4;
id(fan1_speed)=100;
id(fan2_speed)=0;
id(fan3_speed)=35;
id(fan4_speed)=0;
break;
case 10:
id(mode).publish_state("Heat Pump & Recovery - Max");
id(mode_set)=2;
id(fan1_speed)=100;
id(fan2_speed)=75;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
case 11:
id(mode).publish_state("Heat Recovery - Eco Max");
id(mode_set)=1;
id(fan1_speed)=20;
id(fan2_speed)=20;
id(fan3_speed)=0;
id(fan4_speed)=0;
break;
}
switch (id(mode_set)) {
case 1:
id(valve1).turn_off();
id(valve2).turn_off();
id(valve3).turn_off();
id(valve4).turn_off();
id(valve5).turn_off();
break;
case 2:
id(valve1).turn_off();
id(valve2).turn_on();
id(valve3).turn_off();
id(valve4).turn_on();
id(valve5).turn_on();
break;
case 3:
id(valve1).turn_on();
id(valve2).turn_off();
id(valve3).turn_on();
id(valve4).turn_off();
id(valve5).turn_off();
break;
case 4:
id(valve1).turn_on();
id(valve2).turn_off();
id(valve3).turn_off();
id(valve4).turn_on();
id(valve5).turn_off();
break;
}
}
- interval: 1s
then:
# timer wyłączenia pompy ciepła
- lambda: |-
if ( id(hp_switch).state) { id(hp_timer) = 300; }
if ( id(hp_timer) == 1 ) { id(hold) = 0; }
if ( id(hp_timer) > 0 ) { id(hp_timer) = id(hp_timer) - 1; }
zatrzymuje sie w miejscu dimmer z komunikatem
The “custom” component has been removed. Consider conversion to an external component.Code - ESPHome Developer Documentation .
szopen
13 Październik 2025 18:16
4
Świetnie, a pozostałe odpowiedzi?
Bo jak na razie to jedyne co mogę zasugerować to kompilowanie w odpowiednio starej wersji ESPHome
ESPHome addons from previous versions. Just in case something isn't working with the new version
Mam skompilowane w starej wersji i wszystko dziala ale chcialbym skompilowac w nowej, zeby np dodac nowe funkcje jak np wybor temperatury. W tym kodzie jest przypisana na stale. Latem ustawialem 22 stopnie i przekompilowywalem, a zima na 26 zeby nie wlaczala schladzania w nocy. Jak to kiedys pisalem to nie znalem number: i select:
Dostalem tylko ten plik oraz przyklad jak go wykozystac. To bylo dawno, nie znajde. Na podstawie tego przykladu zrobilem ta czesc odnaczona dimmer
szopen
13 Październik 2025 19:00
6
rozwiązanie 1
rozwiązanie 2
rozwiązanie 3
angler
13 Październik 2025 20:04
7
Ktoś już zaczął dopisywać obsługę tego sprzętu do ESPHome, ale nie dokończył. Kod wydaje się był gotowy:
esphome:dev ← dcsim0n:krida_dimmer
opened 10:09PM - 15 Nov 23 UTC
# What does this implement/fix?
Adds support for multi-channel i2c leading ed… ge ac dimmers
https://www.tindie.com/products/bugrovs2012/i2c-4ch-ac-led-dimmer-module/
## Types of changes
- [x ] New feature (non-breaking change which adds functionality)
**Related issue or feature (if applicable):** fixes [<link to issue>](https://github.com/esphome/feature-requests/issues/1409)
**Pull request in [esphome-docs](https://github.com/esphome/esphome-docs) with documentation (if applicable):** esphome/esphome-docs#<esphome-docs PR number goes here>
## Test Environment
- [ ] ESP32
- [ ] ESP32 IDF
- [x] ESP8266
- [ ] RP2040
- [ ] BK72xx
- [ ] RTL87xx
## Example entry for `config.yaml`:
```yaml
output:
- platform: krida_4ch_dimmer
address: 0x27
id: krida_ch1
channel: 0x80
light:
- platform: monochromatic
name: "Channel 1"
output: krida_ch1
```
## Checklist:
- [x ] The code change is tested and works locally.
- [ ] Tests have been added to verify that the new code works (under `tests/` folder).
If user exposed functionality or configuration variables are added/changed:
- [ ] Documentation added/updated in [esphome-docs](https://github.com/esphome/esphome-docs).
1 polubienie
Przyjze sie temu jutro, dziekuje za wskazowki.https://esphome.io/components/i2c_device/
Problem rozwiazalem w dosc nietypowy sposob.
substitutions:
friendly_name: Ventilation
# zmienne globalne
globals:
- id: boot_count
type: int
restore_value: yes
- id: temp_target
type: float
restore_value: no
initial_value: '0'
- id: humidity_target
type: float
restore_value: no
initial_value: '65'
- id: mode_temp
type: int
restore_value: no
initial_value: '0'
- id: mode_mem
type: int
restore_value: no
initial_value: '0'
- id: mode_set
type: int
restore_value: no
initial_value: '0'
- id: mode_set_mem
type: int
restore_value: no
initial_value: '0'
- id: hold
type: int
restore_value: no
initial_value: '100'
- id: timer
type: int
restore_value: no
initial_value: '0'
- id: valvetime
type: int
restore_value: no
initial_value: '180'
- id: fan1_speed
type: int
restore_value: no
initial_value: '0'
- id: fan_min_speed
type: int
restore_value: no
initial_value: '10'
- id: fan1_mem
type: int
restore_value: no
initial_value: '-1'
- id: fan2_speed
type: int
restore_value: no
initial_value: '0'
- id: fan2_mem
type: int
restore_value: no
initial_value: '-1'
- id: fan3_speed
type: int
restore_value: no
initial_value: '0'
- id: fan3_mem
type: int
restore_value: no
initial_value: '-1'
- id: fan4_speed
type: int
restore_value: no
initial_value: '0'
- id: fan4_mem
type: int
restore_value: no
initial_value: '-1'
- id: ventilation_mem
type: std::string
restore_value: no
initial_value: '""'
esphome:
name: ventilation
friendly_name: $friendly_name
includes:
- "/config/esphome/libraries/4channel_krida.h"
on_boot:
- priority: 790
then:
- lambda: |-
id(boot_count) = id(boot_count) + 1;
external_components:
- source:
type: git
url: https://github.com/Davrosx/esphome-custom-component
components: [ custom, custom_component ]
esp32:
board: wt32-eth01
framework:
type: arduino
# Enable logging
logger:
ota:
- platform: esphome
password: "***********"
ethernet:
type: LAN8720
mdc_pin: GPIO23
mdio_pin: GPIO18
clk:
pin: GPIO0
mode: CLK_EXT_IN
phy_addr: 1
power_pin: GPIO16
web_server:
port: 80
mqtt:
broker: !secret mqtt_broker
port: 1883
username: !secret mqtt_username
password: !secret mqtt_password
i2c:
sda: GPIO2
scl: GPIO4
scan: True
pcf8574:
- id: 'pcb1'
address: 0x26
time:
- platform: sntp
id: sntp_time
text_sensor:
- platform: template
name: $friendly_name Uptime
id: uptime_human
icon: mdi:clock-start
entity_category: "diagnostic"
- platform: template
name: $friendly_name Time
id: internal_time
icon: mdi:clock-time-eight-outline
entity_category: "diagnostic"
- platform: template
name: $friendly_name Mode
icon: mdi:air-filter
id: mode_info
update_interval: 1s
entity_category: "diagnostic"
binary_sensor:
- platform: status
name: $friendly_name Network
entity_category: "diagnostic"
- platform: gpio
pin:
number: GPIO36
mode:
input: true
inverted: true
filters:
- delayed_on_off: 500ms
name: $friendly_name Heat Pump State
id: hp_switch
icon: mdi:heat-pump-outline
entity_category: "diagnostic"
- platform: gpio
pin:
number: GPIO39
mode:
input: true
inverted: true
filters:
- delayed_on_off: 1s
name: $friendly_name Air Filter State
id: airfilterswitch
icon: mdi:air-filter
entity_category: "diagnostic"
# przekaźniki
switch:
- platform: restart
name: $friendly_name Reboot
entity_category: "diagnostic"
- platform: template
name: $friendly_name Lock Mode
icon: mdi:lock-outline
id: lock
optimistic: True
restore_mode: RESTORE_DEFAULT_OFF
turn_on_action:
- switch.template.publish:
id: lock
state: ON
turn_off_action:
- switch.template.publish:
id: lock
state: OFF
- platform: gpio
name: $friendly_name Valve 1
id: valve1
icon: mdi:valve
pin:
pcf8574: pcb1
number: 7
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Valve 2
id: valve2
icon: mdi:valve
pin:
pcf8574: pcb1
number: 6
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Valve 3
id: valve3
icon: mdi:valve
pin:
pcf8574: pcb1
number: 5
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Valve 4
id: valve4
icon: mdi:valve
pin:
pcf8574: pcb1
number: 4
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Valve Supply
id: valvesupply
icon: mdi:lightning-bolt-outline
pin:
pcf8574: pcb1
number: 3
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Valve 5
id: valve5
icon: mdi:valve
pin:
pcf8574: pcb1
number: 2
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Ionizer
icon: mdi:air-filter
id: ionizer
pin:
pcf8574: pcb1
number: 1
mode: OUTPUT
inverted: True
- platform: gpio
name: $friendly_name Dirty Filter
id: dirtyfilter
icon: mdi:air-filter
pin:
pcf8574: pcb1
number: 0
mode: OUTPUT
inverted: True
#dimmer
output:
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 3;
return {my_custom_float_output};
outputs:
id: ch_1
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 2;
return {my_custom_float_output};
outputs:
id: ch_2
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 1;
return {my_custom_float_output};
outputs:
id: ch_3
- platform: custom
type: float
lambda: |-
auto my_custom_float_output = new MyCustomFloatOutput();
App.register_component(my_custom_float_output);
my_custom_float_output->channel = 0;
return {my_custom_float_output};
outputs:
id: ch_4
fan:
- platform: speed
output: ch_1
name: $friendly_name 4ch 1
id: fan1
- platform: speed
output: ch_2
name: $friendly_name 4ch 2
id: fan2
- platform: speed
output: ch_3
name: $friendly_name 4ch 3
id: fan3
- platform: speed
output: ch_4
name: $friendly_name 4ch 4
id: fan4
number:
- platform: template
name: $friendly_name Target Temperature
id: home_temp_target
unit_of_measurement: "°C"
icon: mdi:thermometer
optimistic: true
min_value: 15
max_value: 30
restore_value: True
initial_value: 25
step: 1
entity_category: "diagnostic"
- platform: template
name: $friendly_name Lower Night Temperature
id: night_temp
unit_of_measurement: "°C"
icon: mdi:thermometer
optimistic: true
min_value: 0
max_value: 5
restore_value: True
initial_value: 0
step: 1
entity_category: "diagnostic"
select:
- platform: template
name: $friendly_name Mode
id: ventilation_mode
options:
- Fan Off
- Heat Recovery - Eco
- Heat Recovery - Max
- Heat Pump & Recovery - Eco
- Heat Pump - Cooling
- Heat Pump - By-pass
- By-pass - Eco
- By-pass - Max
- Cooling By-pass
- Cooling By-pass - Max
- Heat Pump & Recovery - Max
- Heat Recovery - Eco Max
initial_option: Heat Recovery - Eco
optimistic: True
restore_value: True
icon: mdi:auto-mode
sensor:
- platform: template
name: $friendly_name Target Temperature
icon: mdi:home-thermometer-outline
update_interval: 10s
unit_of_measurement: "°C"
device_class: "temperature"
accuracy_decimals: 1
lambda: 'return id(temp_target);'
- platform: dht
pin: GPIO15
model: DHT22
temperature:
name: $friendly_name Outdoor Temperature
id: temp_outdoor
filters:
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: $friendly_name Outdoor Humidity
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: dht
pin: GPIO33
model: DHT22
temperature:
name: $friendly_name Home Temperature
id: temp_home
filters:
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: $friendly_name Home Humidity
id: humidity
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: dht
pin: GPIO14
model: DHT22
temperature:
name: $friendly_name Supply Temperature
id: temp_supply
filters:
- calibrate_linear:
- 0.0 -> 0.0
- 27.5 -> 25.5
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: $friendly_name Supply Humidity
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: dht
pin: GPIO32
model: DHT22
temperature:
name: $friendly_name Exhaust Temperature
id: temp_exhaust
filters:
- calibrate_linear:
- 0.0 -> 0.0
- 27.5 -> 25.5
- filter_out: nan
- filter_out: 85.0
- exponential_moving_average:
send_every: 2
humidity:
name: $friendly_name Exhaust Humidity
filters:
- filter_out: nan
- exponential_moving_average:
send_every: 2
update_interval: 30s
- platform: template
id: time_minutes
lambda: |-
auto time = id(sntp_time).now();
return time.hour * 60 + time.minute;
- platform: uptime
id: uptime_sensor
internal: True
- platform: template
name: "Interval 60s"
update_interval: 60s
internal: true
lambda: |-
ESP_LOGW("main", "Set Mode: %d", id(mode_set));
auto time = id(sntp_time).now(); // # wyświetla bieżący czas
auto hr = std::to_string(time.hour);
auto min = std::to_string(time.minute);
if (time.minute<10) {min="0"+min;}
auto txt = hr + ":" + min;
id(internal_time).publish_state(txt);
int boot = id(boot_count); // # wyświetla czas od włączenia
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;
txt = (
("(" + to_string(boot) + ") ") +
(days ? to_string(days) + "d " : "") +
(hours ? to_string(hours) + "h " : "") +
(minutes ? to_string(minutes) + "m " : "") +
(to_string(seconds) + "s")
).c_str();
id(uptime_human).publish_state(txt);
id(mode_temp) = 1; // # Ustalenie trybu pracy na podstawie temperatury
if (id(temp_home).state < id(temp_target) && id(temp_outdoor).state > id(temp_home).state + 3) {id(mode_temp) = 6;}
if (id(temp_home).state > id(temp_target) && id(temp_outdoor).state < id(temp_home).state - 3) {id(mode_temp) = 6;}
if (id(temp_home).state > id(temp_target) + 0.5 && id(temp_outdoor).state < id(temp_home).state - 3) {id(mode_temp) = 8;}
if (id(temp_home).state > id(temp_target) + 1 && id(temp_outdoor).state < id(temp_home).state - 3) {id(mode_temp) = 9;}
if (id(hp_switch).state) { // Jeżeli pompa ciepła jest włączona
id(mode_temp) = 3;
if (id(temp_home).state > id(temp_target)) {id(mode_temp) = 4;}
if (id(temp_home).state > id(temp_target) && id(temp_outdoor).state < id(temp_home).state -10) {id(mode_temp) = 5;}
}
if (id(humidity).state > id(humidity_target)) { // # Jeżeli jest duża wilgotność
if (id(mode_temp) == 1) {id(mode_temp) = 1;}
if (id(mode_temp) == 6) {id(mode_temp) = 7;}
if (id(mode_temp) == 8) {id(mode_temp) = 9;}
if (id(mode_temp) == 3) {id(mode_temp) = 3;}
}
if (id(mode_temp) == 1 && id(temp_outdoor).state < 5) {id(mode_temp) = 11;} // Jeżeli jest niska temperatura zewnętrzna
if (id(mode_temp) == id(mode_mem)) { // # Opóźnienie zmiany trybu pracy
id(hold) = 10;
}else{
id(hold) = id(hold) - 1;
}
if (id(mode_mem) == 3 or id(mode_mem) == 4 or id(mode_mem) == 5 or id(mode_mem) == 10) { // # Wyłącznie opóźnienia
if (!id(hp_switch).state) {id(hold) = 0;}
}else{
if (id(hp_switch).state) {id(hold) = 0;}
}
if (id(mode_temp) != id(mode_mem) && id(hold) < 1 && !id(lock).state) { // # Zmiana trybu pracy
id(mode_mem) = id(mode_temp);
id(hold) = 10;
switch (id(mode_temp)) {
case 1:
id(ventilation_mode).make_call().set_option("Heat Recovery - Eco").perform();
break;
case 2:
id(ventilation_mode).make_call().set_option("Heat Recovery - Max").perform();
break;
case 3:
id(ventilation_mode).make_call().set_option("Heat Pump & Recovery - Eco").perform();
break;
case 4:
id(ventilation_mode).make_call().set_option("Heat Pump - Cooling").perform();
break;
case 5:
id(ventilation_mode).make_call().set_option("Heat Pump - By-pass").perform();
break;
case 6:
id(ventilation_mode).make_call().set_option("By-pass - Eco").perform();
break;
case 7:
id(ventilation_mode).make_call().set_option("By-pass - Max").perform();
break;
case 8:
id(ventilation_mode).make_call().set_option("Cooling By-pass").perform();
break;
case 9:
id(ventilation_mode).make_call().set_option("Cooling By-pass - Max").perform();
break;
case 10:
id(ventilation_mode).make_call().set_option("Heat Pump & Recovery - Max").perform();
break;
case 11:
id(ventilation_mode).make_call().set_option("Heat Recovery - Eco Max").perform();
break;
}
}
return 0;
- platform: template
name: "Interval 1s"
update_interval: 1s
internal: true
lambda: |-
if (id(mode_info).state != id(ventilation_mode).state){id(mode_info).publish_state(id(ventilation_mode).state);}
if (id(time_minutes).state > 480 && id(time_minutes).state < 1380 ) { // # ustalenie temperatury
id(temp_target) = id(home_temp_target).state;
}else{
id(temp_target) = id(home_temp_target).state - id(night_temp).state;
}
if (id(airfilterswitch).state ) { // # kontrolka brudnego filtra
id(dirtyfilter).turn_on();
}
if (id(fan1).state ) { // # Jonizator
if (!id(ionizer).state) {
id(ionizer).turn_on();
}
}else{
if (id(ionizer).state) {
id(ionizer).turn_off();
}
}
if (id(ventilation_mode).state != id(ventilation_mem) ) { // # zmiana trybu
id(ventilation_mem) = id(ventilation_mode).state;
if (id(ventilation_mode).state == "Fan Off") { // # Ustawienia parametrów dla wszystkich trybów
id(mode_set) = 1;
id(fan1_speed) = 0;
id(fan2_speed) = 0;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Heat Recovery - Eco") {
id(mode_set) = 1;
id(fan1_speed) = 25;
id(fan2_speed) = 25;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Recovery - Max") {
id(mode_set) = 1;
id(fan1_speed) = 100;
id(fan2_speed) = 100;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Heat Pump & Recovery - Eco") {
id(mode_set) = 2;
id(fan1_speed) = 25;
id(fan2_speed) = 15;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Heat Pump - Cooling") {
id(mode_set) = 3;
id(fan1_speed) = 100;
id(fan2_speed) = 0;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Heat Pump - By-pass") {
id(mode_set) = 4;
id(fan1_speed) = 100;
id(fan2_speed) = 0;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "By-pass - Eco") {
id(mode_set) = 4;
id(fan1_speed) = 40;
id(fan2_speed) = 0;
id(fan3_speed) = 25;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "By-pass - Max") {
id(mode_set) = 4;
id(fan1_speed) = 100;
id(fan2_speed) = 0;
id(fan3_speed) = 50;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Cooling By-pass") {
id(mode_set) = 4;
id(fan1_speed) = 75;
id(fan2_speed) = 0;
id(fan3_speed) = 30;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Cooling By-pass - Max") {
id(mode_set) = 4;
id(fan1_speed) = 100;
id(fan2_speed) = 0;
id(fan3_speed) = 35;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Heat Pump & Recovery - Max") {
id(mode_set) = 2;
id(fan1_speed) = 100;
id(fan2_speed) = 75;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
if (id(ventilation_mode).state == "Heat Recovery - Eco Max") {
id(mode_set) = 1;
id(fan1_speed) = 20;
id(fan2_speed) = 20;
id(fan3_speed) = 0;
id(fan4_speed) = 0;
}
}
if (id(mode_set) != id(mode_set_mem) ) { // # zasilanie zaworów jeśli nastąpiła zmiana trybu
if ( id(mode_set_mem) == 0 ) { id(hold) = 2; }
id(mode_set_mem) = id(mode_set);
id(timer) = id(valvetime);
id(valvesupply).turn_on();
switch (id(mode_set)) { // # ustawienie zaworów
case 1:
id(valve1).turn_off();
id(valve2).turn_off();
id(valve3).turn_off();
id(valve4).turn_off();
id(valve5).turn_off();
break;
case 2:
id(valve1).turn_off();
id(valve2).turn_on();
id(valve3).turn_off();
id(valve4).turn_on();
id(valve5).turn_on();
break;
case 3:
id(valve1).turn_on();
id(valve2).turn_off();
id(valve3).turn_on();
id(valve4).turn_off();
id(valve5).turn_off();
break;
case 4:
id(valve1).turn_on();
id(valve2).turn_off();
id(valve3).turn_off();
id(valve4).turn_on();
id(valve5).turn_off();
break;
}
}
if ( id(valvesupply).state ) { // # Wyłączenie zaworów i zasilania
if (id(timer) > 0) {
id(timer) = id(timer) - 1 ;
}else{
id(valvesupply).turn_off();
}
}else{
if ( id(valve1).state ) { id(valve1).turn_off(); }
if ( id(valve2).state ) { id(valve2).turn_off(); }
if ( id(valve3).state ) { id(valve3).turn_off(); }
if ( id(valve4).state ) { id(valve4).turn_off(); }
if ( id(valve5).state ) { id(valve5).turn_off(); }
}
if (id(fan1_speed) > id(fan1_mem) ) { // # zmiana szybkości wentylatorów
if (id(fan1_speed) < id(fan_min_speed) ) {
id(fan1_mem)=0;
id(fan1_speed)=0;
id(fan1).turn_off().perform();
}
if (id(fan1_speed) >= id(fan_min_speed) ) {
id(fan1_mem)=id(fan1_mem)+1;
if (id(fan1_mem) < id(fan_min_speed) ) { id(fan1_mem)=id(fan_min_speed); }
id(fan1).turn_on().set_speed(id(fan1_mem)).perform();
}
}
if (id(fan1_speed) < id(fan1_mem) ) {
if (id(fan1_speed) < id(fan_min_speed) ) {
id(fan1_mem)=0;
id(fan1_speed)=0;
id(fan1).turn_off().perform();
}
if (id(fan1_speed) >= id(fan_min_speed) ) {
id(fan1_mem)=id(fan1_mem)-1;
id(fan1).turn_on().set_speed(id(fan1_mem)).perform();
}
}
if (id(fan2_speed) > id(fan2_mem) ) {
if (id(fan2_speed) < id(fan_min_speed) ) {
id(fan2_mem)=0;
id(fan2_speed)=0;
id(fan2).turn_off().perform();
}
if (id(fan2_speed) >= id(fan_min_speed) ) {
id(fan2_mem)=id(fan2_mem)+1;
if (id(fan2_mem) < id(fan_min_speed) ) { id(fan2_mem)=id(fan_min_speed); }
id(fan2).turn_on().set_speed(id(fan2_mem)).perform();
}
}
if (id(fan2_speed) < id(fan2_mem) ) {
if (id(fan2_speed) < id(fan_min_speed) ) {
id(fan2_mem)=0;
id(fan2_speed)=0;
id(fan2).turn_off().perform();
}
if (id(fan2_speed) >= id(fan_min_speed) ) {
id(fan2_mem)=id(fan2_mem)-1;
id(fan2).turn_on().set_speed(id(fan2_mem)).perform();
}
}
if (id(fan3_speed) > id(fan3_mem) ) {
if (id(fan3_speed) < id(fan_min_speed) ) {
id(fan3_mem)=0;
id(fan3_speed)=0;
id(fan3).turn_off().perform();
}
if (id(fan3_speed) >= id(fan_min_speed) ) {
id(fan3_mem)=id(fan3_mem)+1;
if (id(fan3_mem) < id(fan_min_speed) ) { id(fan3_mem)=id(fan_min_speed); }
id(fan3).turn_on().set_speed(id(fan3_mem)).perform();
}
}
if (id(fan3_speed) < id(fan3_mem) ) {
if (id(fan3_speed) < id(fan_min_speed) ) {
id(fan3_mem)=0;
id(fan3_speed)=0;
id(fan3).turn_off().perform();
}
if (id(fan3_speed) >= id(fan_min_speed) ) {
id(fan3_mem)=id(fan3_mem)-1;
id(fan3).turn_on().set_speed(id(fan3_mem)).perform();
}
}
if (id(fan4_speed) > id(fan4_mem) ) {
if (id(fan4_speed) < id(fan_min_speed) ) {
id(fan4_mem)=0;
id(fan4_speed)=0;
id(fan4).turn_off().perform();
}
if (id(fan4_speed) >= id(fan_min_speed) ) {
id(fan4_mem)=id(fan4_mem)+1;
if (id(fan4_mem) < id(fan_min_speed) ) { id(fan4_mem)=id(fan_min_speed); }
id(fan4).turn_on().set_speed(id(fan4_mem)).perform();
}
}
if (id(fan4_speed) < id(fan4_mem) ) {
if (id(fan4_speed) < id(fan_min_speed) ) {
id(fan4_mem)=0;
id(fan4_speed)=0;
id(fan4).turn_off().perform();
}
if (id(fan4_speed) >= id(fan_min_speed) ) {
id(fan4_mem)=id(fan4_mem)-1;
id(fan4).turn_on().set_speed(id(fan4_mem)).perform();
}
}
return 0;
2 polubienia
