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thermostat.cpp
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thermostat.cpp
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/*
* EMS-ESP - https://github.com/emsesp/EMS-ESP
* Copyright 2020 Paul Derbyshire
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "thermostat.h"
namespace emsesp {
REGISTER_FACTORY(Thermostat, EMSdevice::DeviceType::THERMOSTAT);
uuid::log::Logger Thermostat::logger_{F_(thermostat), uuid::log::Facility::CONSOLE};
Thermostat::Thermostat(uint8_t device_type, uint8_t device_id, uint8_t product_id, const char * version, const std::string & name, uint8_t flags, uint8_t brand)
: EMSdevice(device_type, device_id, product_id, version, name, flags, brand) {
uint8_t model = this->model();
// remote thermostats with humidity
if (device_id >= 0x38 && device_id <= 0x3F) { // RC100H remote
register_telegram_type(0x042B, F("RemoteTemp"), false, MAKE_PF_CB(process_RemoteTemp));
register_telegram_type(0x047B, F("RemoteHumidity"), false, MAKE_PF_CB(process_RemoteHumidity));
register_telegram_type(0x0273, F("RemoteCorrection"), true, MAKE_PF_CB(process_RemoteCorrection));
register_device_values(); // register device values for common values (not heating circuit)
return; // no values to add
}
// common telegram handlers
register_telegram_type(EMS_TYPE_RCOutdoorTemp, F("RCOutdoorTemp"), false, MAKE_PF_CB(process_RCOutdoorTemp));
register_telegram_type(EMS_TYPE_RCTime, F("RCTime"), false, MAKE_PF_CB(process_RCTime));
register_telegram_type(0xA2, F("RCError"), false, MAKE_PF_CB(process_RCError));
register_telegram_type(0x12, F("RCErrorMessage"), false, MAKE_PF_CB(process_RCErrorMessage));
// RC10
if (model == EMSdevice::EMS_DEVICE_FLAG_RC10) {
monitor_typeids = {0xB1};
set_typeids = {0xB0};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("RC10Monitor"), false, MAKE_PF_CB(process_RC10Monitor));
register_telegram_type(set_typeids[i], F("RC10Set"), false, MAKE_PF_CB(process_RC10Set));
}
// RC35
} else if ((model == EMSdevice::EMS_DEVICE_FLAG_RC35) || (model == EMSdevice::EMS_DEVICE_FLAG_RC30_N)) {
monitor_typeids = {0x3E, 0x48, 0x52, 0x5C};
set_typeids = {0x3D, 0x47, 0x51, 0x5B};
timer_typeids = {0x3F, 0x49, 0x53, 0x5D};
timer2_typeids = {0x42, 0x4C, 0x56, 0x60};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("RC35Monitor"), false, MAKE_PF_CB(process_RC35Monitor));
register_telegram_type(set_typeids[i], F("RC35Set"), false, MAKE_PF_CB(process_RC35Set));
register_telegram_type(timer_typeids[i], F("RC35Timer"), false, MAKE_PF_CB(process_RC35Timer));
register_telegram_type(timer2_typeids[i], F("RC35Timer2"), false, MAKE_PF_CB(process_RC35Timer));
}
register_telegram_type(EMS_TYPE_IBASettings, F("IBASettings"), true, MAKE_PF_CB(process_IBASettings));
register_telegram_type(EMS_TYPE_wwSettings, F("WWSettings"), true, MAKE_PF_CB(process_RC35wwSettings));
register_telegram_type(0x38, F("WWTimer"), true, MAKE_PF_CB(process_RC35wwTimer));
register_telegram_type(0x39, F("WWCircTimer"), true, MAKE_PF_CB(process_RC35wwTimer));
// RC20
} else if (model == EMSdevice::EMS_DEVICE_FLAG_RC20) {
monitor_typeids = {0x91};
set_typeids = {0xA8};
curve_typeids = {0x90};
timer_typeids = {0x8F};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("RC20Monitor"), false, MAKE_PF_CB(process_RC20Monitor));
register_telegram_type(set_typeids[i], F("RC20Set"), false, MAKE_PF_CB(process_RC20Set));
register_telegram_type(curve_typeids[i], F("RC20Temp"), false, MAKE_PF_CB(process_RC20Temp));
register_telegram_type(timer_typeids[i], F("RC20Timer"), false, MAKE_PF_CB(process_RC20Timer));
}
// remote thermostat uses only 0xAF
register_telegram_type(0xAF, F("RC20Remote"), false, MAKE_PF_CB(process_RC20Remote));
// RC20 newer
} else if ((model == EMSdevice::EMS_DEVICE_FLAG_RC20_N) || (model == EMSdevice::EMS_DEVICE_FLAG_RC25)) {
monitor_typeids = {0xAE};
set_typeids = {0xAD};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("RC20Monitor"), false, MAKE_PF_CB(process_RC20Monitor_2));
register_telegram_type(set_typeids[i], F("RC20Set"), false, MAKE_PF_CB(process_RC20Set_2));
}
register_telegram_type(0xAF, F("RC20Remote"), false, MAKE_PF_CB(process_RC20Remote));
// RC30
} else if (model == EMSdevice::EMS_DEVICE_FLAG_RC30) {
monitor_typeids = {0x41};
set_typeids = {0xA7};
curve_typeids = {0x40};
timer_typeids = {0x3F};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("RC30Monitor"), false, MAKE_PF_CB(process_RC30Monitor));
register_telegram_type(set_typeids[i], F("RC30Set"), false, MAKE_PF_CB(process_RC30Set));
register_telegram_type(curve_typeids[i], F("RC30Temp"), false, MAKE_PF_CB(process_RC30Temp));
register_telegram_type(timer_typeids[i], F("RC30Timer"), false, MAKE_PF_CB(process_RC30Timer));
}
register_telegram_type(EMS_TYPE_RC30wwSettings, F("RC30WWSettings"), true, MAKE_PF_CB(process_RC30wwSettings));
register_telegram_type(0x38, F("WWTimer"), true, MAKE_PF_CB(process_RC35wwTimer));
register_telegram_type(0x39, F("WWCircTimer"), true, MAKE_PF_CB(process_RC35wwTimer));
// EASY
} else if (model == EMSdevice::EMS_DEVICE_FLAG_EASY) {
monitor_typeids = {0x0A};
set_typeids = {};
register_telegram_type(monitor_typeids[0], F("EasyMonitor"), true, MAKE_PF_CB(process_EasyMonitor));
// CRF
} else if (model == EMSdevice::EMS_DEVICE_FLAG_CRF) {
monitor_typeids = {0x02A5, 0x02A6, 0x02A7, 0x02A8};
set_typeids = {};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("CRFMonitor"), false, MAKE_PF_CB(process_CRFMonitor));
}
// RC300/RC100
} else if ((model == EMSdevice::EMS_DEVICE_FLAG_RC300) || (model == EMSdevice::EMS_DEVICE_FLAG_RC100)) {
monitor_typeids = {0x02A5, 0x02A6, 0x02A7, 0x02A8, 0x02A9, 0x02AA, 0x02AB, 0x02AC};
set_typeids = {0x02B9, 0x02BA, 0x02BB, 0x02BC, 0x02BD, 0x02BE, 0x02BF, 0x02C0};
set2_typeids = {0x02CC, 0x02CE, 0x02D0, 0x02D2}; // max. 4 heating circuits supported ny RC310
summer_typeids = {0x02AF, 0x02B0, 0x02B1, 0x02B2, 0x02B3, 0x02B4, 0x02B5, 0x02B6};
curve_typeids = {0x029B, 0x029C, 0x029D, 0x029E, 0x029F, 0x02A0, 0x02A1, 0x02A2};
summer2_typeids = {0x0471, 0x0472, 0x0473, 0x0474, 0x0475, 0x0476, 0x0477, 0x0478};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("RC300Monitor"), false, MAKE_PF_CB(process_RC300Monitor));
register_telegram_type(set_typeids[i], F("RC300Set"), false, MAKE_PF_CB(process_RC300Set));
register_telegram_type(summer_typeids[i], F("RC300Summer"), false, MAKE_PF_CB(process_RC300Summer));
register_telegram_type(curve_typeids[i], F("RC300Curves"), false, MAKE_PF_CB(process_RC300Curve));
register_telegram_type(summer2_typeids[i], F("RC300Summer2"), false, MAKE_PF_CB(process_RC300Summer2));
}
for (uint8_t i = 0; i < set2_typeids.size(); i++) {
register_telegram_type(set2_typeids[i], F("RC300Set2"), false, MAKE_PF_CB(process_RC300Set2));
}
register_telegram_type(0x2F5, F("RC300WWmode"), true, MAKE_PF_CB(process_RC300WWmode));
register_telegram_type(0x31B, F("RC300WWtemp"), true, MAKE_PF_CB(process_RC300WWtemp));
register_telegram_type(0x31D, F("RC300WWmode2"), false, MAKE_PF_CB(process_RC300WWmode2));
register_telegram_type(0x31E, F("RC300WWmode2"), false, MAKE_PF_CB(process_RC300WWmode2));
register_telegram_type(0x23A, F("RC300OutdoorTemp"), true, MAKE_PF_CB(process_RC300OutdoorTemp));
register_telegram_type(0x267, F("RC300Floordry"), false, MAKE_PF_CB(process_RC300Floordry));
register_telegram_type(0x240, F("RC300Settings"), true, MAKE_PF_CB(process_RC300Settings));
// JUNKERS/HT3
} else if (model == EMSdevice::EMS_DEVICE_FLAG_JUNKERS) {
monitor_typeids = {0x016F, 0x0170, 0x0171, 0x0172};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(monitor_typeids[i], F("JunkersMonitor"), false, MAKE_PF_CB(process_JunkersMonitor));
}
if (has_flags(EMS_DEVICE_FLAG_JUNKERS_OLD)) {
// FR120, FR100
set_typeids = {0x0179, 0x017A, 0x017B, 0x017C};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(set_typeids[i], F("JunkersSet"), false, MAKE_PF_CB(process_JunkersSet2));
}
} else {
set_typeids = {0x0165, 0x0166, 0x0167, 0x0168};
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
register_telegram_type(set_typeids[i], F("JunkersSet"), false, MAKE_PF_CB(process_JunkersSet));
}
}
register_telegram_type(0xBB, F("HybridSettings"), true, MAKE_PF_CB(process_JunkersHybridSettings));
register_telegram_type(0x23, F("JunkersSetMixer"), true, MAKE_PF_CB(process_JunkersSetMixer));
register_telegram_type(0x123, F("JunkersRemote"), false, MAKE_PF_CB(process_JunkersRemoteMonitor));
}
// register device values for common values (not heating circuit)
register_device_values();
// query all the heating circuits. This is only done once.
// The automatic fetch will from now on only update the active heating circuits
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
EMSESP::send_read_request(monitor_typeids[i], device_id);
}
for (uint8_t i = 0; i < set_typeids.size(); i++) {
EMSESP::send_read_request(set_typeids[i], device_id);
}
EMSESP::send_read_request(EMS_TYPE_RCTime, device_id);
EMSESP::send_read_request(0x12, device_id); // read last error (only published on errors)
EMSESP::send_read_request(0xA2, device_id); // read errorCode (only published on errors)
}
// returns the heating circuit object based on the hc number
// of nullptr if it doesn't exist yet
std::shared_ptr<Thermostat::HeatingCircuit> Thermostat::heating_circuit(const uint8_t hc_num) {
// if hc_num is 0 then return the first existing hc in the list
if (hc_num == AUTO_HEATING_CIRCUIT) {
for (const auto & heating_circuit : heating_circuits_) {
if (heating_circuit->is_active()) {
return heating_circuit;
}
}
}
// otherwise find a match
for (const auto & heating_circuit : heating_circuits_) {
if ((heating_circuit->hc_num() == hc_num) && heating_circuit->is_active()) {
return heating_circuit;
}
}
return nullptr; // not found
}
// determine which heating circuit the type ID is referring too
// returns pointer to the HeatingCircuit or nullptr if it can't be found
// if its a new one, the heating circuit object will be created and also the fetch flags set
std::shared_ptr<Thermostat::HeatingCircuit> Thermostat::heating_circuit(std::shared_ptr<const Telegram> telegram) {
// look through the Monitor and Set arrays to see if there is a match
uint8_t hc_num = 0;
bool toggle_ = false;
// search monitor message types
for (uint8_t i = 0; i < monitor_typeids.size(); i++) {
if (monitor_typeids[i] == telegram->type_id) {
hc_num = i + 1;
toggle_ = true;
break;
}
}
// not found, search status message/set types
if (hc_num == 0) {
for (uint8_t i = 0; i < set_typeids.size(); i++) {
if (set_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search set2 types
if (hc_num == 0) {
for (uint8_t i = 0; i < set2_typeids.size(); i++) {
if (set2_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search summer message types
if (hc_num == 0) {
for (uint8_t i = 0; i < summer_typeids.size(); i++) {
if (summer_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search summer message types
if (hc_num == 0) {
for (uint8_t i = 0; i < summer2_typeids.size(); i++) {
if (summer2_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search heating_curve message types
if (hc_num == 0) {
for (uint8_t i = 0; i < curve_typeids.size(); i++) {
if (curve_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search timer message types
if (hc_num == 0) {
for (uint8_t i = 0; i < timer_typeids.size(); i++) {
if (timer_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search timer message types
if (hc_num == 0) {
for (uint8_t i = 0; i < timer2_typeids.size(); i++) {
if (timer2_typeids[i] == telegram->type_id) {
hc_num = i + 1;
break;
}
}
}
// not found, search device-id types for remote thermostats
if (hc_num == 0 && telegram->src >= 0x18 && telegram->src <= 0x1F) {
hc_num = telegram->src - 0x17;
toggle_ = true;
}
// not found, search device-id types for remote thermostats
if (hc_num == 0 && telegram->dest >= 0x20 && telegram->dest <= 0x27) {
hc_num = telegram->dest - 0x20;
}
// still didn't recognize it, ignore it
if (hc_num == 0) {
return nullptr;
}
// if we have the heating circuit already present, returns its object reference
// otherwise create a new object and add it
for (const auto & heating_circuit : heating_circuits_) {
if (heating_circuit->hc_num() == hc_num) {
return heating_circuit;
}
}
// register new heatingcircuits only on active monitor telegrams
if (!toggle_) {
return nullptr;
}
/*
* at this point we have discovered a new heating circuit
*/
// if it's the first set the status flag
if (heating_circuits_.empty()) {
strlcpy(status_, "online", sizeof(status_));
}
// create a new heating circuit object and add to the list
auto new_hc = std::make_shared<Thermostat::HeatingCircuit>(hc_num, model());
heating_circuits_.push_back(new_hc);
// sort based on hc number so there's a nice order when displaying
// NOTE temporarily commented out the HC sorting until I'm 100% sure the return object still references the newly created object
// not sure if new_hc and heating_circuits_.back() will still reference the new HC after its sorted - to check!
// std::sort(heating_circuits_.begin(), heating_circuits_.end());
// register the device values
register_device_values_hc(new_hc);
// set the flag saying we want its data during the next auto fetch
// monitor is broadcasted, but not frequently in some thermostats (IVT, #356)
if (monitor_typeids.size()) {
toggle_fetch(monitor_typeids[hc_num - 1], toggle_);
}
if (set_typeids.size()) {
toggle_fetch(set_typeids[hc_num - 1], toggle_);
}
if (hc_num <= set2_typeids.size()) {
toggle_fetch(set2_typeids[hc_num - 1], toggle_);
}
if (summer_typeids.size()) {
toggle_fetch(summer_typeids[hc_num - 1], toggle_);
}
if (curve_typeids.size()) {
toggle_fetch(curve_typeids[hc_num - 1], toggle_);
}
if (timer_typeids.size()) {
toggle_fetch(timer_typeids[hc_num - 1], toggle_);
}
if (timer2_typeids.size()) {
toggle_fetch(timer2_typeids[hc_num - 1], toggle_);
}
if (summer2_typeids.size()) {
toggle_fetch(summer2_typeids[hc_num - 1], toggle_);
}
return new_hc; // return back point to new HC object
}
// add the HVAC/Climate HA component for the HC
void Thermostat::add_ha_climate(std::shared_ptr<HeatingCircuit> hc) const {
if (!Mqtt::ha_enabled()) {
hc->climate = EMS_VALUE_UINT_NOTSET;
return;
}
if (Helpers::hasValue(hc->selTemp) && is_readable(&hc->selTemp)) {
if (Helpers::hasValue(hc->roomTemp) && is_readable(&hc->roomTemp)) {
hc->climate = 1;
} else {
hc->climate = 0;
}
} else {
hc->climate = EMS_VALUE_UINT_NOTSET;
}
}
// decodes the thermostat mode for the heating circuit based on the thermostat type
// modes are off, manual, auto, day, night and holiday
uint8_t Thermostat::HeatingCircuit::get_mode() const {
uint8_t model = get_model();
if (!Helpers::hasValue(mode)) {
return HeatingCircuit::Mode::UNKNOWN;
}
if (model == EMSdevice::EMS_DEVICE_FLAG_RC10) {
if (mode == 2) {
return HeatingCircuit::Mode::DAY;
} else if (mode == 1) {
return HeatingCircuit::Mode::NIGHT;
} else if (mode == 0) {
return HeatingCircuit::Mode::OFF;
}
} else if (model == EMSdevice::EMS_DEVICE_FLAG_RC20) {
if (mode == 0) {
return HeatingCircuit::Mode::OFF;
} else if (mode == 1) {
return HeatingCircuit::Mode::MANUAL;
} else if (mode == 2) {
return HeatingCircuit::Mode::AUTO;
}
} else if (model == EMSdevice::EMS_DEVICE_FLAG_CRF) {
if (mode == 0) {
return HeatingCircuit::Mode::AUTO;
} else if (mode == 1) {
return HeatingCircuit::Mode::OFF;
}
} else if ((model == EMSdevice::EMS_DEVICE_FLAG_RC300) || (model == EMSdevice::EMS_DEVICE_FLAG_RC100)) {
if (mode == 0) {
return HeatingCircuit::Mode::MANUAL;
} else if (mode == 1) {
return HeatingCircuit::Mode::AUTO;
}
} else if (model == EMSdevice::EMS_DEVICE_FLAG_JUNKERS) {
if (mode == 1) {
return HeatingCircuit::Mode::MANUAL;
} else if (mode == 2) {
return HeatingCircuit::Mode::AUTO;
} else if (mode == 3) {
return HeatingCircuit::Mode::HOLIDAY;
}
} else { // default for all other thermostats
if (mode == 0) {
return HeatingCircuit::Mode::NIGHT;
} else if (mode == 1) {
return HeatingCircuit::Mode::DAY;
} else if (mode == 2) {
return HeatingCircuit::Mode::AUTO;
}
}
return HeatingCircuit::Mode::UNKNOWN;
}
// figures out the thermostat day/night mode depending on the thermostat type
// mode types are day, night, eco, comfort
uint8_t Thermostat::HeatingCircuit::get_mode_type() const {
uint8_t model = get_model();
if (model == EMS_DEVICE_FLAG_JUNKERS) {
if (modetype == 2) {
return HeatingCircuit::Mode::HEAT;
} else if (modetype == 1) {
return HeatingCircuit::Mode::ECO;
} else if (modetype == 0) {
return HeatingCircuit::Mode::NOFROST;
}
} else if ((model == EMS_DEVICE_FLAG_RC35) || (model == EMS_DEVICE_FLAG_RC30_N)) {
if (modetype == 0) {
return HeatingCircuit::Mode::NIGHT;
} else if (modetype == 1) {
return HeatingCircuit::Mode::DAY;
}
} else if (model == EMS_DEVICE_FLAG_CRF) {
if (modetype == 0) {
return HeatingCircuit::Mode::OFF;
} else if (modetype == 1) {
return HeatingCircuit::Mode::ON;
}
} else if (model == EMS_DEVICE_FLAG_RC300) {
if (modetype == 0) {
return HeatingCircuit::Mode::ECO;
} else if (modetype == 1) {
return HeatingCircuit::Mode::COMFORT;
}
} else if (model == EMS_DEVICE_FLAG_RC100) {
return HeatingCircuit::Mode::DAY; // no other modes on these devices
}
return HeatingCircuit::Mode::DAY;
}
// decodes the thermostat mode based on the thermostat type
// works with both modes and mode_types
std::string Thermostat::mode_tostring(uint8_t mode) {
switch (mode) {
case HeatingCircuit::Mode::OFF:
return read_flash_string(F_(off));
case HeatingCircuit::Mode::MANUAL:
return read_flash_string(F_(manual));
case HeatingCircuit::Mode::DAY:
return read_flash_string(F_(day));
case HeatingCircuit::Mode::NIGHT:
return read_flash_string(F_(night));
case HeatingCircuit::Mode::ECO:
return read_flash_string(F_(eco));
case HeatingCircuit::Mode::COMFORT:
return read_flash_string(F_(comfort));
case HeatingCircuit::Mode::HEAT:
return read_flash_string(F_(heat));
case HeatingCircuit::Mode::HOLIDAY:
return read_flash_string(F_(holiday));
case HeatingCircuit::Mode::NOFROST:
return read_flash_string(F_(nofrost));
case HeatingCircuit::Mode::AUTO:
return read_flash_string(F_(auto));
case HeatingCircuit::Mode::SUMMER:
return read_flash_string(F_(summer));
case HeatingCircuit::Mode::OFFSET:
return read_flash_string(F_(offset));
case HeatingCircuit::Mode::DESIGN:
return read_flash_string(F_(design));
case HeatingCircuit::Mode::MINFLOW:
return read_flash_string(F_(minflow));
case HeatingCircuit::Mode::MAXFLOW:
return read_flash_string(F_(maxflow));
case HeatingCircuit::Mode::ROOMINFLUENCE:
return read_flash_string(F_(roominfluence[0]));
case HeatingCircuit::Mode::FLOWOFFSET:
return read_flash_string(F_(flowtempoffset[0]));
case HeatingCircuit::Mode::TEMPAUTO:
return read_flash_string(F_(tempauto));
case HeatingCircuit::Mode::NOREDUCE:
return read_flash_string(F_(noreduce));
default:
return read_flash_string(F_(unknown));
}
}
// type 0xB1 - data from the RC10 thermostat (0x17)
// Data: 04 23 00 BA 00 00 00 BA
void Thermostat::process_RC10Monitor(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
uint8_t mode = 1 << hc->mode;
telegram->read_value(mode, 0); // 1: nofrost, 2: night, 4: day
has_update(hc->mode, mode >> 1); // store as enum 0, 1, 2
has_update(telegram, hc->selTemp, 1, 1); // is * 2, force as single byte
has_update(telegram, hc->roomTemp, 2); // is * 10
has_update(telegram, hc->reduceminutes, 5);
add_ha_climate(hc);
}
// type 0xB0 - for reading the mode from the RC10 thermostat (0x17)
// Data: 00 FF 00 1C 20 08 01
void Thermostat::process_RC10Set(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, ibaClockOffset_, 0);
has_update(telegram, backlight_, 1);
has_update(telegram, wwMode_, 2);
has_update(telegram, hc->nighttemp, 3);
has_update(telegram, hc->daytemp, 4);
has_update(telegram, hc->reducehours, 5);
has_update(telegram, heatingpid_, 6);
}
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wunused-parameter"
// type 0xB2, mode setting Data: 04 00
// not used, we read mode from monitor 0xB1
void Thermostat::process_RC10Set_2(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
// uint8_t mode = 1 << hc->mode;
// telegram->read_value(mode, 0); // 1: nofrost, 2: night, 4: day
// has_update(hc->mode, mode >> 1); // store as enum 0, 1, 2
}
#pragma GCC diagnostic pop
// 0xA8 - for reading the mode from the RC20 thermostat (0x17)
// RC20Set(0xA8), data: 01 00 FF F6 01 06 00 01 0D 01 00 FF FF 01 02 02 02 00 00 05 1E 05 1E 02 1C 00 FF 00 00 26 02
void Thermostat::process_RC20Set(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->mode, 23); // 0:off, 1:manual, 2:auto
// has_update(telegram, hc->nofrosttemp, 24); // guess, not confirmed yet, maybe nighttemp?
// has_update(telegram, hc->tempautotemp, 28); // no need to read this
has_update(telegram, hc->manualtemp, 29);
}
// 0x90 - for reading curve temperature from the RC20 thermostat (0x17)
//
void Thermostat::process_RC20Temp(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->nighttemp, 3); // 0:off, 1:manual, 2:auto
has_update(telegram, hc->daylowtemp, 4);
has_update(telegram, hc->daymidtemp, 5);
has_update(telegram, hc->daytemp, 6);
}
// 0x8F - for reading timer from the RC20 thermostat (0x17)
// data: 04 5D 01 78 24 5D 21 6E 43 5D 41 78 64 5D 61 78 84 5D 81 78 E7 90 E7 90 E7 90 E7
// data: 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 (offset 27)
// data: E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 (offset 54)
// data: 90 E7 90 01 00 00 01 01 00 01 01 00 01 01 00 01 01 00 00 (offset 81)
void Thermostat::process_RC20Timer(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
if ((telegram->message_length == 2 && telegram->offset < 83 && !(telegram->offset & 1))
|| (!telegram->offset && telegram->message_length > 1 && !strlen(hc->switchtime1))) {
char data[sizeof(hc->switchtime1)];
uint8_t no = telegram->offset / 2;
uint8_t day = telegram->message_data[0] >> 5;
uint8_t temp = telegram->message_data[0] & 7;
uint8_t time = telegram->message_data[1];
std::string sday = read_flash_string(FL_(enum_dayOfWeek)[day]);
if (day == 7) {
snprintf(data, sizeof(data), "%02d not_set", no);
} else {
snprintf(data, sizeof(data), "%02d %s %02d:%02d T%d", no, sday.c_str(), time / 6, 10 * (time % 6), temp);
}
strlcpy(hc->switchtime1, data, sizeof(hc->switchtime1));
has_update(hc->switchtime1); // always publish
}
}
// type 0xAE - data from the RC20 thermostat (0x17) - not for RC20's
// 17 00 AE 00 80 12 2E 00 D0 00 00 64 (#data=8)
// https://github.com/emsesp/EMS-ESP/issues/361
void Thermostat::process_RC20Monitor_2(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
// modes byte 0,1: day: 8002, night: 0000, auto-day:0402, auto-night:0400
has_bitupdate(telegram, hc->modetype, 1, 1); // day/night
has_update(telegram, hc->selTemp, 2, 1); // is * 2, force as single byte
has_update(telegram, hc->roomTemp, 3); // is * 10
has_bitupdate(telegram, hc->summermode, 1, 0);
add_ha_climate(hc);
}
// 0xAD - for reading the mode from the RC20/ES72 thermostat (0x17)
// see https://github.com/emsesp/EMS-ESP/issues/334#issuecomment-611698259
// offset: 01-nighttemp, 02-daytemp, 03-mode, 0B-program(1-9), 0D-setpoint_roomtemp(temporary)
// 17 00 AD 00 01 27 29 01 4B 05 01 FF 28 19 0A 02 00 00
// RC25(0x17) -> All(0x00), ?(0xAD), data: 01 27 2D 00 44 05 01 FF 28 19 0A 07 00 00 F6 12 5A 11 00 28 05 05 00
void Thermostat::process_RC20Set_2(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->heatingtype, 0);
has_update(telegram, hc->nighttemp, 1); // is * 2,
has_update(telegram, hc->daytemp, 2); // is * 2,
has_update(telegram, hc->mode, 3);
has_enumupdate(telegram, hc->program, 11, 1); // 1 .. 9 predefined programs
has_update(telegram, hc->tempautotemp, 13);
// RC25 extension:
has_update(telegram, ibaMinExtTemperature_, 14);
has_update(telegram, hc->minflowtemp, 15);
has_update(telegram, hc->maxflowtemp, 16);
has_update(telegram, hc->summertemp, 17);
}
// 0xAF - for reading the roomtemperature from the RC20/ES72 thermostat (0x18, 0x19, ..)
void Thermostat::process_RC20Remote(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->remotetemp, 0);
}
// 0x42B - for reading the roomtemperature from the RC100H remote thermostat (0x38, 0x39, ..)
// e.g. "38 10 FF 00 03 2B 00 D1 08 2A 01"
void Thermostat::process_RemoteTemp(std::shared_ptr<const Telegram> telegram) {
has_update(telegram, tempsensor1_, 0);
}
// 0x47B - for reading humidity from the RC100H remote thermostat (0x38, 0x39, ..)
// e.g. "38 10 FF 00 03 7B 08 24 00 4B"
void Thermostat::process_RemoteHumidity(std::shared_ptr<const Telegram> telegram) {
has_update(telegram, dewtemperature_, 0);
has_update(telegram, humidity_, 1);
}
// 0x273 - for reading temperaturcorrection from the RC100H remote thermostat (0x38, 0x39, ..)
void Thermostat::process_RemoteCorrection(std::shared_ptr<const Telegram> telegram) {
has_update(telegram, ibaCalIntTemperature_, 0);
}
// type 0x0165, ff
void Thermostat::process_JunkersSet(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->daytemp, 17); // is * 2
has_update(telegram, hc->nighttemp, 16); // is * 2
has_update(telegram, hc->nofrosttemp, 15); // is * 2
has_update(telegram, hc->control, 1); // remote: 0-off, 1-FB10, 2-FB100
has_enumupdate(telegram, hc->program, 13, 1); // 1-6: 1 = A, 2 = B,...
has_enumupdate(telegram, hc->mode, 14, 1); // 0 = nofrost, 1 = eco, 2 = heat, 3 = auto
}
// type 0x0179, ff
void Thermostat::process_JunkersSet2(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->daytemp, 7); // is * 2
has_update(telegram, hc->nighttemp, 6); // is * 2
has_update(telegram, hc->nofrosttemp, 5); // is * 2
has_enumupdate(telegram, hc->program, 10, 1); // 1-6: 1 = A, 2 = B,...
has_enumupdate(telegram, hc->mode, 4, 1); // 0 = nofrost, 1 = eco, 2 = heat, 3 = auto
}
// type 0x123 - FR10/FR110 Junkers as remote
void Thermostat::process_JunkersRemoteMonitor(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->remotetemp, 0); // roomTemp from remote
}
// type 0xA3 - for external temp settings from the the RC* thermostats (e.g. RC35)
void Thermostat::process_RCOutdoorTemp(std::shared_ptr<const Telegram> telegram) {
has_update(telegram, dampedoutdoortemp_, 0);
has_update(telegram, tempsensor1_, 3); // sensor 1 - is * 10
has_update(telegram, tempsensor2_, 5); // sensor 2 - is * 10
}
// 0x91 - data from the RC20 thermostat (0x17) - 15 bytes long
// RC20Monitor(0x91), data: 90 2A 00 D5 1A 00 00 05 00 5A 04 00 D6 00
// offset 8: setburnpower to boiler, offset 9: setflowtemp to boiler (thermostat: targetflowtemp) send via 0x1A
void Thermostat::process_RC20Monitor(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->selTemp, 1, 1); // is * 2, force as single byte
has_update(telegram, hc->roomTemp, 2); // is * 10
add_ha_climate(hc);
}
// type 0x0A - data from the Nefit Easy/TC100 thermostat (0x18) - 31 bytes long
void Thermostat::process_EasyMonitor(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->roomTemp, 8); // is * 100
has_update(telegram, hc->selTemp, 10); // is * 100
add_ha_climate(hc);
}
// Settings Parameters - 0xA5 - RC30_1
void Thermostat::process_IBASettings(std::shared_ptr<const Telegram> telegram) {
// 22 - display line on RC35
// display on Thermostat: 0 int. temp, 1 int. setpoint, 2 ext. temp., 3 burner temp., 4 ww temp, 5 functioning mode, 6 time, 7 data, 8 smoke temp
has_update(telegram, ibaMainDisplay_, 0);
has_update(telegram, ibaLanguage_, 1); // language on Thermostat: 0 german, 1 dutch, 2 french, 3 italian
has_update(telegram, ibaCalIntTemperature_, 2); // offset int. temperature sensor, by * 0.1 Kelvin
has_update(telegram, ibaBuildingType_, 6); // building type: 0 = light, 1 = medium, 2 = heavy
has_update(telegram, ibaMinExtTemperature_, 5); // min ext temp for heating curve, in deg., 0xF6=-10, 0x0 = 0, 0xFF=-1
has_update(telegram, ibaClockOffset_, 12); // offset (in sec) to clock, 0xff = -1 s, 0x02 = 2 s
has_update(telegram, ibaDamping_, 21); // damping 0-off, 0xff-on
}
// Settings WW 0x37 - RC35
void Thermostat::process_RC35wwSettings(std::shared_ptr<const Telegram> telegram) {
has_update(telegram, wwProgMode_, 0); // 0-like hc, 0xFF own prog
has_update(telegram, wwCircProg_, 1); // 0-like hc, 0xFF own prog
has_update(telegram, wwMode_, 2); // 0-off, 1-on, 2-auto
has_update(telegram, wwCircMode_, 3); // 0-off, 1-on, 2-auto
has_update(telegram, wwDisinfecting_, 4); // 0-off, 0xFF on
has_update(telegram, wwDisinfectDay_, 5); // 0-6 Day of week, 7 every day
has_update(telegram, wwDisinfectHour_, 6);
has_update(telegram, wwMaxTemp_, 8); // Limiter 60 degrees
has_update(telegram, wwOneTimeKey_, 9); // 0-off, 0xFF on
}
// Settings WW 0x3A - RC30
void Thermostat::process_RC30wwSettings(std::shared_ptr<const Telegram> telegram) {
has_update(telegram, wwMode_, 0); // 0-on, 1-off, 2-auto
has_update(telegram, wwWhenModeOff_, 1); // 0-off, 0xFF on
has_update(telegram, wwDisinfecting_, 2); // 0-off, 0xFF on
has_update(telegram, wwDisinfectDay_, 3); // 0-6 Day of week, 7 every day
has_update(telegram, wwDisinfectHour_, 4);
}
// type 0x38 (ww) and 0x39 (circ)
void Thermostat::process_RC35wwTimer(std::shared_ptr<const Telegram> telegram) {
if ((telegram->message_length == 2 && telegram->offset < 83 && !(telegram->offset & 1))
|| (!telegram->offset && telegram->type_id == 0x38 && !strlen(wwSwitchTime_) && telegram->message_length > 1)
|| (!telegram->offset && telegram->type_id == 0x39 && !strlen(wwCircSwitchTime_) && telegram->message_length > 1)) {
uint8_t no = telegram->offset / 2;
uint8_t day = telegram->message_data[0] >> 5;
uint8_t on = telegram->message_data[0] & 1;
uint8_t time = telegram->message_data[1];
std::string sday = read_flash_string(FL_(enum_dayOfWeek)[day]);
char data[sizeof(wwSwitchTime_)];
if (day == 7) {
snprintf(data, sizeof(data), "%02d not_set", no);
} else {
snprintf(data, sizeof(data), "%02d %s %02d:%02d %s", no, sday.c_str(), time / 6, 10 * (time % 6), on ? "on" : "off");
}
if (telegram->type_id == 0x38) {
strlcpy(wwSwitchTime_, data, sizeof(wwSwitchTime_));
has_update(wwSwitchTime_);
} else {
strlcpy(wwCircSwitchTime_, data, sizeof(wwCircSwitchTime_));
has_update(wwCircSwitchTime_);
}
if (is_fetch(telegram->type_id)) {
toggle_fetch(telegram->type_id, false); // dont fetch again
}
}
// vacation/holiday only from dhw timer
if (telegram->type_id != 0x38) {
return;
}
if (telegram->message_length + telegram->offset >= 92 && telegram->offset <= 87) {
char data[sizeof(wwVacation_)];
snprintf(data,
sizeof(data),
"%02d.%02d.%04d-%02d.%02d.%04d",
telegram->message_data[87 - telegram->offset],
telegram->message_data[88 - telegram->offset],
telegram->message_data[89 - telegram->offset] + 2000,
telegram->message_data[90 - telegram->offset],
telegram->message_data[91 - telegram->offset],
telegram->message_data[92 - telegram->offset] + 2000);
has_update(wwVacation_, data, sizeof(wwVacation_));
}
if (telegram->message_length + telegram->offset >= 98 && telegram->offset <= 93) {
char data[sizeof(wwHoliday_)];
snprintf(data,
sizeof(data),
"%02d.%02d.%04d-%02d.%02d.%04d",
telegram->message_data[93 - telegram->offset],
telegram->message_data[94 - telegram->offset],
telegram->message_data[95 - telegram->offset] + 2000,
telegram->message_data[96 - telegram->offset],
telegram->message_data[97 - telegram->offset],
telegram->message_data[98 - telegram->offset] + 2000);
has_update(wwHoliday_, data, sizeof(wwHoliday_));
}
}
// type 0x6F - FR10/FR50/FR100/FR110/FR120 Junkers
void Thermostat::process_JunkersMonitor(std::shared_ptr<const Telegram> telegram) {
// ignore single byte telegram messages
if (telegram->message_length <= 1) {
return;
}
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_enumupdate(telegram, hc->modetype, 0, 1); // 1 = nofrost, 2 = eco, 3 = heat
has_update(telegram, hc->selTemp, 2); // value is * 10
if ((hc->control == 1) || (hc->control == 2)) {
has_update(telegram, hc->roomTemp, 6); // roomTemp from remote
} else {
has_update(telegram, hc->roomTemp, 4); // value is * 10
}
add_ha_climate(hc);
}
// 0xBB Heatpump optimization
// ?(0xBB), data: 00 00 00 00 00 00 00 00 00 00 00 FF 02 0F 1E 0B 1A 00 14 03
void Thermostat::process_JunkersHybridSettings(std::shared_ptr<const Telegram> telegram) {
has_enumupdate(telegram, hybridStrategy_, 12, 1); // cost = 2, temperature = 3, mix = 4
has_update(telegram, switchOverTemp_, 13); // full degrees
has_update(telegram, energyCostRatio_, 14); // is *10
has_update(telegram, fossileFactor_, 15); // is * 10
has_update(telegram, electricFactor_, 16); // is * 10
has_update(telegram, delayBoiler_, 18); // minutes
has_update(telegram, tempDiffBoiler_, 19); // relative degrees
}
void Thermostat::process_JunkersSetMixer(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->targetflowtemp, 0);
}
// type 0x02A5 - data from Worchester CRF200
void Thermostat::process_CRFMonitor(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->roomTemp, 0); // is * 10
has_bitupdate(telegram, hc->modetype, 2, 0); // bit 0, modetype (off=0 , on=1)
has_bitupdate(telegram, hc->mode, 2, 4); // bit 4, mode (auto=0, off=1)
has_update(telegram, hc->selTemp, 6, 1); // is * 2, force as single byte
has_update(telegram, hc->targetflowtemp, 4);
add_ha_climate(hc);
}
// type 0x02A5 - data from the Nefit RC1010/3000 thermostat (0x18) and RC300/310s on 0x10
void Thermostat::process_RC300Monitor(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
has_update(telegram, hc->roomTemp, 0); // is * 10
has_bitupdate(telegram, hc->modetype, 10, 1);
has_bitupdate(telegram, hc->mode, 10, 0); // bit 1, mode (auto=1 or manual=0)
// if manual, take the current setpoint temp at pos 6
// if auto, take the next setpoint temp at pos 7
// pos 3 is the current target temp and sometimes can be 0
// see https://github.com/emsesp/EMS-ESP/issues/256#issuecomment-585171426
// pos 3 actual setpoint (optimized), i.e. changes with temporary change, summer/holiday-modes
// pos 6 actual setpoint according to programmed changes eco/comfort
// pos 7 next setpoint in the future, time to next setpoint in pos 8/9
has_update(telegram, hc->selTemp, 3, 1); // is * 2, force as single byte
// has_bitupdate(telegram, hc->summermode, 2, 4);
// summermode is bit 4 for boilers and bit 6 for heatpumps: 0:winter, 1:summer
telegram->read_value(hc->statusbyte, 2);
if (hc->statusbyte & 1) {
has_update(hc->summermode, hc->statusbyte & 0x50 ? 1 : 0);
has_update(hc->hpoperatingstate, EMS_VALUE_UINT_NOTSET);
} else {
has_enumupdate(telegram, hc->hpoperatingstate, 20, 1); // 1:heating, 2:off, 3:cooling
has_update(hc->summermode, EMS_VALUE_UINT_NOTSET);
}
has_update(telegram, hc->targetflowtemp, 4);
has_update(telegram, hc->curroominfl, 27);
add_ha_climate(hc);
}
// type 0x02B9 EMS+ for reading from RC300/RC310 thermostat
void Thermostat::process_RC300Set(std::shared_ptr<const Telegram> telegram) {
std::shared_ptr<Thermostat::HeatingCircuit> hc = heating_circuit(telegram);
if (hc == nullptr) {
return;
}
// NOTE when setting the room temp we pick from two values, hopefully one is correct!
// manual is position 10
// comfort is position 2, there are 3 levels in pos 3, 2, 1
// eco is position 4
// auto is position 8, temporary until next switch
// actual setpoint taken from RC300Monitor (MichaelDvP 12.06.2020)
// has_update(telegram, hc->selTemp, 8, 1); // single byte conversion, value is * 2 - auto?
// has_update(telegram, hc->selTemp, 10, 1); // single byte conversion, value is * 2 - manual
// check why mode is both in the Monitor and Set for the RC300. It'll be read twice!
// has_update(telegram, hc->mode, 0); // Auto = xFF, Manual = x00 eg. 10 00 FF 08 01 B9 FF
has_update(telegram, hc->daytemp, 2); // is * 2
has_update(telegram, hc->nighttemp, 4); // is * 2
// has_update(telegram, hc->tempautotemp, 8); // is * 2