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#!/bin/bash

mydir="$(dirname "$(readlink -f "$0")")"

php ${mydir}/craft backup --interactive=0

backupfile="$(ls -Art "${mydir}/storage/backups/" | tail -n 1)"
now=`date +"%Y-%m-%d"`

tar cvzf ${mydir}/storage/runtime/temp/backup-${now}.tar.gz ${mydir}/storage/backups/${backupfile} ${mydir}/web/uploads/*

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// при перемиканні ioncs8_config в ON конфігуруємо реле
rules.JSRule({
    name: "Initial relay config",
    triggers: [triggers.ItemCommandTrigger('ioncs8_config')],
    execute: (event) => {
        // відв'язуємо перший та восьмий вхід від виходу
        if (event.receivedCommand === 'ON') items.getItem('ioncs8_1_configuration_outputmapping').sendCommand(0b01111110); 
        else items.getItem('ioncs8_1_configuration_outputmapping').sendCommand(0b11111111);
      
        console.log('RELAY CONFIGURED');

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Group ioncs8 "ION CS8" ["Equipment", "Light"]
    Switch ioncs8_config "Налаштувати реле :)" (ioncs8)

    Switch  ioncs8_1_relay "1" (ioncs8) {channel="modbus:data:ion8cs_1:output:i1:switch"}
    Contact ioncs8_1_status1 "1" (ioncs8) {channel="modbus:data:ion8cs_1:input:status1:contact"}
    Contact ioncs8_1_status8 "8" (ioncs8) {channel="modbus:data:ion8cs_1:input:status8:contact"}

    Group ioncs8_1_configuration "ION CS8 settings" (ioncs8)
        Number ioncs8_1_configuration_outputmapping (ioncs8_1_configuration) {channel="modbus:data:ion8cs_1:outputs:mapping:number"}

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// донгл /dev/usbModbus на швидкості 9600 з'єднано із реле slave=7
Bridge modbus:serial:ion8cs_1 [ port="/dev/usbModbus", id=7, baud=9600, stopBits="2.0", parity="none",dataBits=8, encoding="rtu"] {
    // 8 coil регістрів починаючи з 0, це керування станом реле
    // я не знайшов це в документації і якось здогадався шо воно може бути саме так
    Bridge poller output [ start=0, length=8, type="coil" ] {
        Thing data i1 "Стан 1" [ readStart="0", readValueType="bit", writeStart="0", writeType="coil"]
        Thing data i2 "Стан 2" [ readStart="1", readValueType="bit", writeStart="1", writeType="coil"]
        Thing data i3 "Стан 3" [ readStart="2", readValueType="bit", writeStart="2", writeType="coil"]
        Thing data i4 "Стан 4" [ readStart="3", readValueType="bit", writeStart="3", writeType="coil"]
        Thing data i5 "Стан 5" [ readStart="4", readValueType="bit", writeStart="4", writeType="coil"]

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let proxy = require('openhab-proxy-pattern');

/*
proxy.bind(proxy_item_name, hardware_item_name).update([callback]).forward([callback]);
*/

// проксирование от железа в виртуалку
proxy.bind('Equipment_WF_OutTemperature', 'SmartMAC_D105_1_T2').update();

// проксирование в обе стороны

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let proxy = require('openhab-proxy-pattern');

proxy.bind("GF_Office_Co2", "Netatmo_Indoor_Co2")
    .update(function(value) {
        const ppm = parseInt(value);

        return (typeof value == 'string') ? `${ppm} ppm` : undefined;
    });

proxy.bind("GF_Office_Humidity", "Netatmo_Indoor_Humidity")

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Number Netatmo_Indoor_Humidex "Humidex [%.0f]" <temperature_hot> {channel="netatmo:NAMain:home:inside:Humidex", expire="60m" }
Number:Temperature Netatmo_Indoor_HeatIndex "HeatIndex [%.1f %unit%]" <temperature_hot>  {channel = "netatmo:NAMain:home:inside:HeatIndex", expire="60m" }
Number:Temperature Netatmo_Indoor_Dewpoint "Dewpoint [%.1f %unit%]" <temperature_cold> {channel = "netatmo:NAMain:home:inside:Dewpoint", expire="60m" }
Number:Temperature Netatmo_Indoor_DewpointDepression "DewpointDepression [%.1f %unit%]" <temperature_cold> {channel = "netatmo:NAMain:home:inside:DewpointDepression", expire="60m"}
Number:Dimensionless Netatmo_Indoor_Co2 "Co2 [%d %unit%]" <carbondioxide> {channel = "netatmo:NAMain:home:inside:Co2", expire="60m"}

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///////////////////////
// Кабінет
Group GF_Office "Кабінет" <office>  (Home_GroundFloor) ["Office"]
Group GF_Office_HVAC "Клімат кабінету" <heating> (GF_Office, gHVAC) ["HVAC"] {ga="Thermostat" [ modes="heat,eco=ECO,auto" ]}

  Number:Temperature GF_Office_Temperature "Температура у кабінеті [%.1f %unit%]" <hvac_temperature> (GF_Office_HVAC, gTemperature) ["Measurement", "Temperature"] {ga="thermostatTemperatureAmbient"}
  Number:Temperature GF_Office_SetpointTemperature "Бажана температура у кабінеті [%.1f %unit%]" <hvac_setpoint> (GF_Office_HVAC, gSetpointTemperature) ["Setpoint", "Temperature"] {ga="thermostatTemperatureSetpoint"}
  Number:Dimensionless GF_Office_Humidity "Вологість у кабінеті [%d %%]" <hvac_humidity> (GF_Office_HVAC) ["Measurement", "Humidity"] {ga="thermostatHumidityAmbient"}
  Number:Dimensionless GF_Office_Co2 "Co2 у кабінеті [%d ppm]" <hvac_co2> (GF_Office_HVAC) ["Measurement", "CO2"] { ga="Sensor" [ sensorName="CarbonDioxideLevel", valueUnit="PARTS_PER_MILLION" ] }

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mkdir /app/nano
curl https://github.com/Ehryk/heroku-nano/raw/master/heroku-nano-2.5.1/nano.tar.gz --location --silent | tar xz -C /app/nano
export PATH=$PATH:/app/nano

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#define AC_PIN 3
#define RF_PIN 2
#define LED_PIN 13

volatile int counter = 0;
volatile int ac_status = 0;
volatile unsigned long ac_timer;

int ON[] = {2, 2, 2, 2, 1, 4, 4, 4, 4, 5, 1, 4, 4, 4, 4, 4, 4, 5, 2, 2, 1, 4, 4, 4, 6}; //The RF code that will turn the ON
int OFF[] = {2, 2, 2, 2, 1, 4, 4, 4, 4, 5, 1, 4, 4, 4, 4, 4, 4, 5, 2, 2, 2, 2, 2, 2, 3}; //The RF code that will turn the OFF