[RassK]

[Markos]

[aeropiloot]

Toosid on pandud 60mm, lülitite kaabeldus on tellitud neutraaliga.

[RassK]

Võtsin magamistoa kardinatele ka mootori, Somfy Glydea. Hakkasin otsima Fibaro Roller Shutter 3 integreerimiseks aga vaatasin, et uus 4. versioon ka väljas. Fibaro enda lehel mitte mingit piiksugi sellest
Imelik, et paljudes kohtades on juba müügil aga Fibaro ise sellist toodet oma lehel ei tunnista

[Markos]

Midagi paneelifännidele:

Link


Edit: Eile oli elektrikatkestus 4h, sai asjad kõik kenasti maha lastud tänu upsidele, aga peale voolu tagasitulekut oli neli ikea pirni kadunud ja ei saanud mingi valemiga neid enam võrku (va remove-add). Kuna kaks neist olid samad tegelased, kes eelmisel korral ka koostööst keeldusid, siis otsustasin kõik välja vahetada. Tundub väga sedamoodi, et pikema voolukatkestuse korral kaotavad oma identiteedi. Nutikodu võlud, peale elektrikatkestust tegeled mitu tundi elustamisega.

[RassK]

[Terror]

Sai nutipistik soetatud ning katsetasin Home Assistantiga boileri juhtimist vastavalt börsihinnale.
Hästi tehtud õpetus: https://www.creatingsmarthome.com/index.php/2023/11/12/home-assistant-advanced-nord-pool-cheapest-hours-automation-non-sequential/
Kõik toimib, kuid sooviks, et nordpooli hind kuvataks reaalse makstava lõpphinnana.
St sinna tuleks lisada:

Elektri edastamine: päev 0,0567€/kWh
Elektri edastamine: öö 0,0328€/kWh
Taastuvenergia tasu 0,0105€/kWh
22% KM

Kellelgi kindlasti need lisatud ehk saab konfi linkida mis kuhu.

[Markos]

Hindade fikseerimisel pesed ennast aeg-ajalt külma veega.

[pois11]

[RassK]

[netmaster]

Kuna HA's skriptide kirjutamine on PITA, siis ma tegin HA kõrvale tillukese DietPI VM'i ja treisin oma börsiprogrammi seal valmis PHP'ga. Seal sai siis igasugu "otsuseid" hinna, temperatuuride, kellaaegade jms. baasil palju lihtsamalt teha. Väljundiks on kaks USB releed, mis on ühendatud soojuspumbaga. Plaanis on pumba külge kleepida veel pisike elektrihinnalipikuga display. HA'le söödetakse ette lõplikud numbrid ja see mis seisus releed on. Sisuliselt joonistab ta ainult graafikuid, muud midagi.

[RassK]

Kasutage lihtsate scriptide / template'ide genereerimiseks ChatGPT'd näiteks.

[Markos]

[Janis]

Mul sensori additional costs väljal selline rida, toimib.

[pois11]

[RassK]

Kahjuks mul ühtegi Shelly't pole... Markos'e pakutu tundus igal juhul loogiline, et selline loogika asub pigem keskseadmes

[51004]

Kas on kellelgi olnud kokkupuuteid EZVIZ seadmetega (mitte kaamerad) vaid näiteks sedalaadi asjaga https://www.oomipood.ee/product/cs_b1_ezviz_cs_b1_valveseadmete_komplekt
ehk siis A3 keskjaam ja erinevad andurid, et kuidas neid seadistada? Kõik võiks nagu olla loogiline, aga käituvad asjad nagu ise tahavad, telefonile enamasti ei jõua ükski teada, kuigi kõik akuoptimeerimised maha keeratud ja muud load antud. Eile isegi mõni teade tuli läbi, täna 0. Keskseade küll vahepeal annab märku, aga ka see tundub sõltuma õhurõhust või tuule suunast. Kas keegi oskab suunata mõne asjalikuma seadistusjuhendini, kui tavapärased kasutusjuhendid, kus ainult üldsõnalised kirjeldused? Või on mõni asjalik foorum või muud õpetused? Sõber googelt proovisin. Muidu paistab kena mänguasi, kõik andurid võttis kenasti külge jne, aga soovi kohaselt toimima ei saa.

[degreal]

endale töötasin välja sellise valemi. Võtab nordpool integrationist ennustuse ja töötleb selle ostu ja müügi hinnaks:

Spoiler

{% set today = state_attr('sensor.nordpool_mwh_ee_eur_3_10_0', 'raw_today') %} {% set tomorrow = state_attr('sensor.nordpool_mwh_ee_eur_3_10_0', 'raw_tomorrow') %} {% set km = states('input_number.km') | float(22.0) %} {% set buy_marginal = states('input_number.el_marginal_buy') | float(0.0) %} {% set sell_marginal = states('input_number.el_marginal_sell') | float(0.8) %} {% set aktsiis = states('input_number.el_aktsiis') | float(0.1) %} {% set taast = states('input_number.el_taastuvenergiatasu') | float(1.13) %} {% set oo = states('input_number.el_vorgutasu_oo') | float(3.28) %} {% set paev = states('input_number.el_vorgutasu_paev') | float(5.67) %} {% set src = namespace(numbers=[]) %} {% set src.numbers = src.numbers + today + tomorrow %} {% set data = namespace(numbers=[]) %} {% for i in src.numbers %} {%   set n = i.start %} {%   set m = n.month%} {%   set d = n.day%} {%   set is_night = n.hour < 7       or n.hour >= 22       or n.weekday() >= 5       or m==1 and d==1       or m==2 and d==24       or m==5 and d==1       or m==6 and (d==23 or d ==24)       or m==8 and d==20       or m==12 and (d==24 or d==25 or d==26)%} {%   set tasud = aktsiis+taast+buy_marginal+(oo if is_night else paev) %} {%   set buy = ((i.value + tasud*10)*km) | round(2) %} {%   set sell = (i.value - sell_marginal*10) | round(2) %} {%   set data.numbers = data.numbers + [{"start": i.start | string, "pool": i.value, "buy": buy, "sell": sell}] %} {% endfor %} {{ data.numbers | tojson }}

Pead ei anna et õigesti arvutab kuna minu arvutuste järgi pidi elektriarve tulema 6€ aga tegelikult tuli 26€

[Markos]

[bladerunner]

Mis oleks lihtsaim viis 2 hetkel tavalist lülitit nö vekslisse ajada?
Soovitavalt ilma mingi keskseadme/pilvelahenduse abita.
Tavalülitid nupplülitiga asendada ja Shelly 1 releed juhtima? Saab need omavahel kuidagi otsesuhtlema ka panna?

[Markos]

[hki]

[pois11]

[RassK]

Terve sektsioon ju olemas, kuidas seda valmis scripti oma jullale panna.
https://github.com/LeivoSepp/Smart-heating-management-with-Shelly/blob/master/README.md#how-to-install-this-script

[pois11]

[RassK]

Kas ainult parameetreid ei saa muuta nii, et loogikat ei puutu? https://github.com/LeivoSepp/Smart-heating-management-with-Shelly/blob/master/README.md#configuring-script-parameters

ChatGPT võiks osata syntaxi vigu ka ära siluda, kopeeri ainult see blokk mida muudad ja ütle, et ta parandaks JavaScripti vead ära.

[pois11]

Midagi sain toimima aga vajab veel jälgimist.
Aga kas pean tähelepanu pöörama sellisele veale?

Iga tunni kohta siis arvutatakse välja kas relee on sees või väljas. Arvutus hakkab kell 23:00 aga piiratud mälu tõttu arvutatakse ainult esimesed 20 tundi. Mis siis ülejäänud 4h saab?

[RassK]

Vajab veits planeerimist jah, 20 ajastust on limiit nagu see FAILED ütleb, siis ülejäänuid lihtsalt ignoreeritakse. Lahendus ilmselt oleks uus ajastus (schedule) lisada iga tunniga, sedasi on mälus ainult 1. Kuna ma sisu / toodet ei tea, siis 100% ei saa kindel olla, et see midagi ära ei lõhu.

[degreal]

Kuidas 2012 Nissan Leaf-ist akuprotsendi info kätte saaks? Et saaks vastavalt akuprotsendile saaks laadida öösel noppida välja odavaimaid tunde vastavalt sellele mitu tundi laadida vaja.
OBD2 jubin -> bluetooth -> LeafSpy äpp android emulaatoris -> HA.
Mõistuspärasemat moodust pole?

[Janis]

Integrationit pole?
Mu volkaril oli kohe olemas ja kogu info HA's, uuem ka muidugi see...

[degreal]

[filx]

[matukas]

Kas keegi on kokku puutunud Atlantic boileri võrku ühendamise probleemiga läbi cozytouch rakenduse?
Kuidagi ei taha õnnestuda ja suppordist abi ei ole. Räägib, et meie regioonis tuleb kasutada google DNSi (8.8.8.8) ja avada tuleb port 804.
Samas NATistatud võrgust tavaolukorras väljaminev liiklus piiratud ei ole ja ma ei usu, et nad eeldavad sissetulevat portforwardi. DNSi sai vahetatud.
Telia fiiber, Mikrotik ruuter, Asuse AP.

[RassK]

[matukas]

[avrn]

No see tähendabki, et suunad/avad nimetatud numbriga pordi.
Boilerile pane staatiline ip või lase ruuteril talle konkreetne ip anda. Mõlemad variandid peaks toimima.
Ja siis suunad selle 804 pordi sellele boileri aadressile.
Kas port tegelikult ka lahti on, saab kontrollida nt.: https://portchecker.co/canyouseeme
Sellel suunatud pordil peab siis reaalselt ka mingi teenus vastama.

[matukas]

[bladerunner]

Ja pordi kasvõi prooviks avamine ei tule kõne allagi? Et äkki hakkab tööle, mis siis küll saab...

[RassK]

Ava paariks tunniks port testimiseks jah. Üldiselt ei ole tõesti hea lahendus aga kui nii tehtud on siis nii on.

[Markos]

"Open port" ei tähenda üldjuhul pordisuunamist, vaid seda, et sul ei oleks siseneval liiklusel müüri peal. Cozytouch on täiesti tavaline-tüüpiline pilverakendus, need ei nõua mingeid pordisuunamisi, see oleks nonsens. Kuna 804 kuulub privilegeeritud portide vahemikku, siis vahel tähendab linnuke "firewall" seda, et sisenev 1-1024 on eraldi blokeeritud. Vaata oma Microtiki seaded üle.

[RassK]

[mikk36]

[triu]

Cosytouch Bridge abil ühendamine ei vaja Telia ruuteri puhul mitte mingit ruuteri seadistamist. Cosytouch Bridge mõne aasta vanune versioon oli ainult võrgukaabliga ruuteriga ühendatav ja ühendub boileriga raadio teel. Boileril otse ühendamise võimalust, ilma Cosytouch Bridge-ta polnud. Saab seda boilerit üldse ilma Cosytouch Bridge-ta internetiga ühendada?

[aeropiloot]

[matukas]

[pois11]

Ei saa shelly scripti nii tööle nagu minul tarvis on: https://github.com/LeivoSepp/Smart-heating-management-with-Shelly

Kasutan börsi jälgimise funktsiooni ilma kütmise funktsioonita. Kui hind on madalam siis relee on sees, ja kõrgem, siis OFF

Spoiler

Probleem on selles, et arvestus käib ainult korra päevas kell 23:00, kui kogu ajaperioodil on börsi hind soodne nagu tavaliselt nv on, siis viimased 4 arvestus läheb kaduma. Relee on esimesed 20h sees, sest Shelly nutireleel on piirang 20 Schedule korraga. Oleks vaja, et script teeks kalkulatsiooni kaks korda ööpäevas. Kell 23:00 ja kell 11:00
Kuidas seda teha või saaks keegi aidata?

Minu script:

Spoiler

/* This Shelly script is designed to retrieve energy market prices from Elering and activate heating during the most cost-effective hours each day, employing various algorithms. 1. Dynamic calculation of heating time for the next day based on weather forecasts. 2. Division of heating into time periods, with activation during the cheapest hour within each period. 3. Utilization of min-max price levels to maintain the Shelly system consistently on or off. The script executes daily after 23:00 to establish heating timeslots for the following day. created by Leivo Sepp, 25.12.2023 https://github.com/LeivoSepp/Smart-heating-management-with-Shelly */ /* Elektrilevi electricity transmission fees (EUR/MWh): */ let VORK1 = { dayRt: 72, nightRt: 72 }; let VORK2 = { dayRt: 87, nightRt: 50 }; let VORK2KUU = { dayRt: 56, nightRt: 33 }; let VORK4 = { dayRt: 37, nightRt: 21 }; let NONE = { dayRt: 0, nightRt: 0 }; // timePeriod: duration of each time period in hours, (0 -> only min-max price used, 24 -> period is one day). // heatingTime: duration of heating in hours during each designated period. // isFcstUsed: true/false - Using weather forecast to calculate heating duration. /****** HEATING MODES, YOU CAN MODIFY OR CREATE YOUR OWN ******/ /* Heating schedulers with forecast */ let HEAT24H_FCST = { timePeriod: 24, heatingTime: 0, isFcstUsed: true }; let HEAT12H_FCST = { timePeriod: 12, heatingTime: 24, isFcstUsed: true }; let HEAT6H_FCST = { timePeriod: 6, heatingTime: 0, isFcstUsed: true }; /* 24h heating schedulers */ let HEAT24H_20H = { timePeriod: 24, heatingTime: 20, isFcstUsed: false }; let HEAT24H_12H = { timePeriod: 24, heatingTime: 12, isFcstUsed: false }; let HEAT24H_10H = { timePeriod: 24, heatingTime: 10, isFcstUsed: false }; let HEAT24H_8H = { timePeriod: 24, heatingTime: 8, isFcstUsed: false }; /* 12h heating schedulers */ let HEAT12H_6H = { timePeriod: 12, heatingTime: 6, isFcstUsed: false }; let HEAT12H_4H = { timePeriod: 12, heatingTime: 4, isFcstUsed: false }; let HEAT12H_2H = { timePeriod: 12, heatingTime: 2, isFcstUsed: false }; let HEAT12H_1H = { timePeriod: 12, heatingTime: 1, isFcstUsed: false }; /* 6h heating schedulers */ let HEAT6H_2H = { timePeriod: 6, heatingTime: 2, isFcstUsed: false }; let HEAT6H_1H = { timePeriod: 6, heatingTime: 1, isFcstUsed: false }; /* 4h heating schedulers */ let HEAT4H_2H = { timePeriod: 4, heatingTime: 2, isFcstUsed: false }; let HEAT4H_1H = { timePeriod: 4, heatingTime: 1, isFcstUsed: false }; /* Use only low price component */ let HEAT_LOWPRICE = { timePeriod: 12, heatingTime: 12, isFcstUsed: false }; /****** USER SETTINGS, START MODIFICATION ******/ let s = {     heatingMode: HEAT_LOWPRICE ,  // HEATING MODE. Different heating modes described above.     elektrilevi: NONE ,      // ELEKTRILEVI transmission fee: VORK1 / VORK2 / VORK2KUU / VORK4 / NONE //    alwaysOnLowPrice: 10,       // Keep heating always ON if energy price lower than this value (EUR/MWh)     alwaysOffHighPrice: 250,    // Keep heating always OFF if energy price higher than this value (EUR/MWh)     isOutputInverted: false,    // Configures the relay state to either normal or inverted. (inverted required by Nibe, Thermia)     relayID: 0,                 // Shelly relay ID     defaultTimer: 60,           // Default timer duration, in minutes, for toggling the Shelly state.     country: "ee",              // Estonia-ee, Finland-fi, Lithuania-lt, Latvia-lv     heatingCurve: 1,            // Shifting heating curve to the left or right, check the tables below. Shift by 1 equals 1h.     powerFactor: 1,           // Adjusts the heating curve to be either more flat or more aggressive (0 -> flat, 1 -> steep). } /****** USER SETTINGS, END OF MODIFICATION ******/ /* Heating time dependency on heating curve and outside temperature for 24h and 12h (power factor 0.5).     |   ------   24h heating curve   ------   |  °C  |-10  -8  -6  -4  -2  0   2   4   6   8   10 _________________________________________________ 17  | 0   0   0   0   0   0   0   0   0   0   0 15  | 0   0   0   0   0   0   0   2   4   6   8 10  | 0   0   0   0   0   1   3   5   7   9   11 5   | 0   0   0   0   1   3   5   7   9   11  13 0   | 0   0   0   2   4   6   8   10  12  14  16 -5  | 0   0   2   4   6   8   10  12  14  16  18 -10 | 1   3   5   7   9   11  13  15  17  19  21 -15 | 3   5   7   9   11  13  15  17  19  21  23 -20 | 6   8   10  12  14  16  18  20  22  24  24 -25 | 8   10  12  14  16  18  20  22  24  24  24     |   -------   12h heating curve   -------   | °C  |-10  -8  -6  -4  -2  0   2   4   6   8   10 _________________________________________________ 17  | 0   0   0   0   0   0   0   0   0   0   0 15  | 0   0   0   0   0   0   0   1   2   3   4 10  | 0   0   0   0   0   1   2   3   4   5   6 5   | 0   0   0   0   1   2   3   4   5   6   7 0   | 0   0   0   1   2   3   4   5   6   7   8 -5  | 0   0   1   2   3   4   5   6   7   8   9 -10 | 1   2   3   4   5   6   7   8   9   10  11 -15 | 2   3   4   5   6   7   8   9   10  11  12 -20 | 3   4   5   6   7   8   9   10  11  12  12 -25 | 4   5   6   7   8   9   10  11  12  12  12 Forecast temp °C is "feels like": more information here: https://en.wikipedia.org/wiki/Apparent_temperature */ let _ = {     openMeteo: "https://api.open-meteo.com/v1/forecast?hourly=apparent_temperature&timezone=auto&forecast_days=1&forecast_hours=" + s.heatingMode.timePeriod,     elering: "https://dashboard.elering.ee/api/nps/price/csv?fields=" + s.country,     elUrl: '',     omUrl: '',     heatTime: '',     ctPeriods: s.heatingMode.timePeriod <= 0 ? 0 : Math.ceil((24 * 100) / (s.heatingMode.timePeriod * 100)), //period count is up-rounded     tsPrices: '',     tsFcst: '',     loopFreq: 60, //seconds     loopRunning: false,     dayInSec: 60 * 60 * 24,     sId: Shelly.getCurrentScriptId(),     pId: "Id" + Shelly.getCurrentScriptId() + ": ",     rpcCl: 3,     cntr: 0,     schedId: [],     version: 2.6, }; /* This is the start of the script. Set the script to start automatically. Set the default script library Get old scheduler IDs from the KVS storage */ function start() {     setAutoStart();     setKvsScrLibr();     Shelly.call('KVS.Get', { key: "schedulerIDs" + _.sId }, function (res, err, msg, data) {         let si = [];         if (res) {             si = JSON.parse(res.value);             res = null; //to save memory         }         delSc(si);     }); } /* set the script to sart automatically on boot */ function setAutoStart() {     if (!Shelly.getComponentConfig("script", _.sId).enable) {         Shelly.call('Script.SetConfig', { id: _.sId, config: { enable: true } },             function (res, err, msg, data) {                 if (err != 0) {                     print("Heating script autostart is not enabled.", msg, ". After Shelly restart, this script will not start and new heating schedules are not created.");                 }             });     } } /* set the default script library */ function setKvsScrLibr() {     Shelly.call("KVS.set", { key: "scripts-library", value: '{"url": "https://raw.githubusercontent.com/LeivoSepp/Smart-heating-management-with-Shelly/master/manifest.json"}' }); } /* Before anything else delete all the old schedulers created by this script. */ function delSc(s) {     //logic below is a non-blocking method for RPC calls to delete all schedulers one by one     if (_.cntr < 6 - _.rpcCl) {         for (let i = 0; i < _.rpcCl && i < s.length; i++) {             let id = s.splice(0, 1)[0];             _.cntr++;             Shelly.call("Schedule.Delete", { id: id },                 function (res, err, msg, data) {                     if (err !== 0) {                         print(_.pId, "Schedule ", data.id, " delete FAILED.");                     }                     else {                         print(_.pId, "Schedule ", data.id, " delete SUCCEEDED.");                     }                     _.cntr--;                 },                 { id: id }             );         }     }     //if there are more calls in the queue     if (s.length > 0) {         Timer.set(             1000, //the delay             false,             function () {                 delSc(s);             });     }     else {         main(); //start the main logic     } } /** This is the main script where all the logic starts. This one is called after all the old schedulers are deleted. */ function main() {     //wait until all the schedulers are deleted     if (_.cntr !== 0) {         Timer.set(             1000,             false,             function () {                 main();             });         return;     }     //all old schedulers are now deleted, start the main flow     //find Shelly timezone     let shEpochUtc = Shelly.getComponentStatus("sys").unixtime;     let shDt = new Date(shEpochUtc * 1000);     let shHr = shDt.getHours();     let shUtcHr = shDt.toISOString().slice(11, 13);     let tz = shHr - shUtcHr;     if (tz > 12) { tz -= 24; }     if (tz < -12) { tz += 24; }     let tzInSec = tz * 60 * 60;     // After 23:00 tomorrow's energy prices are used     // before 23:00 today's energy prices are used.     let addDays = shHr >= 23 ? 0 : -1;            // build datetime for Elering query     let isoTime = new Date((shEpochUtc + tzInSec + _.dayInSec * addDays) * 1000).toISOString().slice(0, 10);     let isoTimePlusDay = new Date((shEpochUtc + tzInSec + (_.dayInSec * (addDays + 1))) * 1000).toISOString().slice(0, 10);     let dtStart = isoTime + "T" + (24 - tz) + ":00Z";     let dtEnd = isoTimePlusDay + "T" + (24 - tz - 1) + ":00Z";     _.elUrl = _.elering + "&start=" + dtStart + "&end=" + dtEnd;     print(_.pId, "Shelly ", shDt);     shDt = null;     shEpochUtc = null;     _.heatTime = s.heatingMode.heatingTime;     //if weather forecast used for heating hours     s.heatingMode.isFcstUsed ? getForecast() : getElering(); } /** Get Open-Meteo min and max "feels like" temperatures */ function getForecast() {     let lat = JSON.stringify(Shelly.getComponentConfig("sys").location.lat);     let lon = JSON.stringify(Shelly.getComponentConfig("sys").location.lon);     _.omUrl = _.openMeteo + "&latitude=" + lat + "&longitude=" + lon;     print(_.pId, "Get forecast from: ", _.omUrl)     try {         Shelly.call("HTTP.GET", { url: _.omUrl, timeout: 5, ssl_ca: "*" }, fcstCalc);     }     catch (error) {         print(_.pId, "Oh no, OpenMeteo ", error);         print(_.pId, "Get forecast failed, checking again in ", _.loopFreq, " seconds.");         _.loopRunning = false;     } } /* Calculate heating hours */ function fcstCalc(res, err, msg) {     try {         if (err != 0 || res === null || res.code != 200 || JSON.parse(res.body)["error"]) {             print(_.pId, "Get forecast failed, checking again in ", _.loopFreq, " seconds.");             _.loopRunning = false;         }         else {             let jsonFcst = JSON.parse(res.body); //open-meteo json response             let aTemp = jsonFcst["hourly"]["apparent_temperature"]; //get 6h, 12h or 24h temperatures             let sumFcst = 0;             for (let i = 0; i < aTemp.length; i++) {                 sumFcst += aTemp[i];             }             //clear memory             aTemp = null;             res = null;             jsonFcst = null;             let tempFcst = Math.ceil(sumFcst / s.heatingMode.timePeriod); //AVG and round temperature up             _.tsFcst = epoch();  //store the timestamp into memory             print(_.pId, "We got weather forecast from Open Meteo at ", new Date().toString());             // calculating heating hours             let startTemp = 16;             let fcstHeatTime = ((startTemp - tempFcst) * (s.powerFactor - 1) + (startTemp - tempFcst + s.heatingCurve - 2));             fcstHeatTime = fcstHeatTime < 0 || tempFcst > startTemp ? 0 : fcstHeatTime; //heating time can't be negative             _.heatTime = Math.floor(fcstHeatTime / _.ctPeriods); //divide with periods and round-down heating duration             _.heatTime = _.heatTime > s.heatingMode.timePeriod ? s.heatingMode.timePeriod : _.heatTime; //heating time can't be more than period             print(_.pId, "Temperture forecast width windchill is ", tempFcst, " °C, and heating enabled for ", _.heatTime, " hours.");             getElering(); //call elering         }     } catch (error) {         print(_.pId, "Oh no, OpenMeteo JSON ", error);         print(_.pId, "Get forecast failed, checking again in ", _.loopFreq, " seconds.");         _.loopRunning = false;     } } /* Get electricity market price CSV file from Elering.  */ function getElering() {     print(_.pId, "Get Elering prices from: ", _.elUrl);     try {         Shelly.call("HTTP.GET", { url: _.elUrl, timeout: 5, ssl_ca: "*" }, priceCalc);     }     catch (error) {         print(_.pId, "Oh no, Elering ", error);         print(_.pId, "Get Elering failed, checking again in ", _.loopFreq, " seconds.");         _.loopRunning = false;     } } /** Price calculation logic. Creating time periods etc. */ function priceCalc(res, err, msg) {     if (err != 0 || res === null || res.code != 200 || !res.body_b64) {         print(_.pId, "Get Elering failed, checking again in ", _.loopFreq, " seconds.");         _.loopRunning = false;     }     else {         //clear memory         res.headers = null;         res.message = null;         msg = null;         //Converting base64 to text         res.body_b64 = atob(res.body_b64);         //Discarding header         res.body_b64 = res.body_b64.substring(res.body_b64.indexOf("\n") + 1);         let eleringPrices = [];         let activePos = 0;         while (activePos >= 0) {             res.body_b64 = res.body_b64.substring(activePos);             activePos = 0;             let row = [0, 0];             activePos = res.body_b64.indexOf("\"", activePos) + 1;             if (activePos === 0) {                 //" character not found -> end of data                 break;             }             //epoch             row[0] = Number(res.body_b64.substring(activePos, res.body_b64.indexOf("\"", activePos)));             //skip "; after timestamp             activePos = res.body_b64.indexOf("\"", activePos) + 2;             //price             activePos = res.body_b64.indexOf(";\"", activePos) + 2;             row[1] = Number(res.body_b64.substring(activePos, res.body_b64.indexOf("\"", activePos)).replace(",", "."));             //Add transfer fees (if any)             let hour = new Date(row[0] * 1000).getHours();             let day = new Date(row[0] * 1000).getDay();             if (hour < 7 || hour >= 22 || day === 6 || day === 0) {                 row[1] += s.elektrilevi.nightRt; //night fee             }             else {                 row[1] += s.elektrilevi.dayRt; //day fee             }             //Adding stuff             eleringPrices.push(row);             //find next row             activePos = res.body_b64.indexOf("\n", activePos);         }         res = null; //to save memory         let newScheds = [];         //store the timestamp into memory         _.tsPrices = epoch();         print(_.pId, "We got market prices from Elering ", new Date().toString());         setShellyTimer(s.isOutputInverted, s.defaultTimer); //set default timer         //if heating is based only on the alwaysOnMaxPrice and alwaysOffMinPrice         if (s.heatingMode.timePeriod <= 0) {             for (let a = 0; a < eleringPrices.length; a++) {                 if (eleringPrices[a][1] < s.alwaysOnLowPrice) {                     newScheds.push([new Date((eleringPrices[a][0]) * 1000).getHours(), eleringPrices[a][1], 0]);                     print(_.pId, "Energy price + transfer fee " + eleringPrices[a][1] + " EUR/MWh at " + new Date((eleringPrices[a][0]) * 1000).getHours() + ":00 is less than min price and used for heating.")                 }             }             if (!newScheds.length) {                 print(_.pId, "No energy prices below min price level. No heating.")             }         }         //heating periods calculation         let period = [];         let sortedPeriod = [];         //the number of period when the script is executed in case of forecast used         let nmPeriod = Math.ceil((new Date().getHours() % 23 + 2) / s.heatingMode.timePeriod);         // Create an array for each heating period, sort, and push the prices         for (let i = 0; i < _.ctPeriods; i++) {             if (s.heatingMode.isFcstUsed && (i + 1) != nmPeriod) { continue; } //in case of forecast, only one period is calculated             let k = 0;             let hoursInPeriod = (i + 1) * s.heatingMode.timePeriod > 24 ? 24 : (i + 1) * s.heatingMode.timePeriod;             for (let j = i * s.heatingMode.timePeriod; j < hoursInPeriod; j++) {                 period[k] = eleringPrices[j];                 k++;             }             sortedPeriod = sort(period, 1); //sort by price             let heatingHours = sortedPeriod.length < _.heatTime ? sortedPeriod.length : _.heatTime; //finds max hours to heat in that period             for (let a = 0; a < sortedPeriod.length; a++) {                 if ((a < heatingHours || sortedPeriod[a][1] < s.alwaysOnLowPrice) && !(sortedPeriod[a][1] > s.alwaysOffHighPrice)) {                     newScheds.push([new Date((sortedPeriod[a][0]) * 1000).getHours(), sortedPeriod[a][1], i + 1]);                 }                 //If some hours are too expensive to use for heating, then just let user know for this                 if (a < heatingHours && sortedPeriod[a][1] > s.alwaysOffHighPrice) {                     print(_.pId, "Energy price + transfer fee " + sortedPeriod[a][1] + " EUR/MWh at " + new Date((sortedPeriod[a][0]) * 1000).getHours() + ":00 is more expensive than max price and not used for heating.")                 }             }         }         //clearing memory         eleringPrices = null;         sortedPeriod = null;         period = null;     }     listScheds(sort(newScheds, 0)); } /** Get all the existing schedulers to check duplications */ function listScheds(newScheds) {     Shelly.call("Schedule.List", {},         function (res, err, msg, data) {             if (res === 0) {                 // No existing schedulers found                 createScheds([], data.s);             }             else {                 // Found existing schedulers                 createScheds(res.jobs, data.s);                 res = null; //to save memory             }         }, { s: newScheds }     ); } /** Create all schedulers, the Shelly limit is 20. */ function createScheds(listScheds, newScheds) {     //logic below is a non-blocking method for RPC calls to create all schedulers one by one     if (_.cntr < 6 - _.rpcCl) {         for (let i = 0; i < _.rpcCl && i < newScheds.length; i++) {             let isExist = false;             let hour = newScheds[0][0];             let ctPeriod = newScheds[0][2];             let price = newScheds.splice(0, 1)[0][1]; //cut the array one-by-one             let timespec = "0 0 " + hour + " * * *";             //looping through existing schedulers             for (let k = 0; k < listScheds.length; k++) {                 let t = listScheds[k].timespec;                 let p = listScheds[k].calls[0].params;                 //check if the scheduler exist                 if (p.id === s.relayID && t.split(" ").join("") === timespec.split(" ").join("")) {                     print(_.pId, "#" + ctPeriod, "Skipping scheduler at: ", hour + ":00 for relay:", s.relayID, " as it is already exist.");                     isExist = true;                     break;                 }             }             // only create unique schedulers             if (!isExist) {                 _.cntr++;                 Shelly.call("Schedule.Create", {                     "id": 0, "enable": true, "timespec": timespec,                     "calls": [{                         "method": "Switch.Set",                         "params": {                             "id": s.relayID,                             "on": !s.isOutputInverted                         }                     }]                 },                     function (res, err, msg, data) {                         if (err !== 0) {                             print(_.pId, "#" + data.ctPeriod, "Scheduler at: ", data.hour + ":00 price: ", data.price, " EUR/MWh (energy price + transmission). FAILED, 20 schedulers is the Shelly limit.");                         }                         else {                             print(_.pId, "#" + data.ctPeriod, "Scheduler starts at: ", data.hour + ":00 price: ", data.price, " EUR/MWh (energy price + transmission). ID:", res.id, " SUCCESS");                             _.schedId.push(res.id); //create an array of scheduleIDs                         }                         _.cntr--;                     },                     { hour: hour, price: price, ctPeriod: ctPeriod }                 );             }         }     }     //if there are more calls in the queue     if (newScheds.length > 0) {         Timer.set(             1000, //the delay             false,             function () {                 createScheds(listScheds, newScheds);             });     }     else {         setKVS();     } } /** Storing the scheduler IDs in KVS to not loose them in case of power outage */ function setKVS() {     //wait until all the schedulerIDs are collected     if (_.cntr !== 0) {         Timer.set(             1000,             false,             function () {                 setKVS();             });         return;     }     //schedulers are created, store the IDs to KVS     Shelly.call("KVS.set", { key: "version" + _.sId, value: _.version });     Shelly.call("KVS.set", { key: "timestamp" + _.sId, value: new Date().toString() });     Shelly.call("KVS.set", { key: "schedulerIDs" + _.sId, value: JSON.stringify(_.schedId) },         function () {             print(_.pId, "Script v", _.version, " created all the schedules, next heating calculation at", nextChkHr() + ":00.");             _.loopRunning = false;         });     _.schedId = []; } /** Set countdown timer to flip Shelly status */ function setShellyTimer(isOutInv, timerMin) {     let is_on = isOutInv ? "on" : "off";     let timerSec = timerMin * 60; //time in seconds     print(_.pId, "Set Shelly auto " + is_on + " timer for ", timerMin, " minutes.");     Shelly.call("Switch.SetConfig", {         "id": 0,         config: {             "name": "Switch0",             "auto_on": isOutInv,             "auto_on_delay": timerSec,             "auto_off": !isOutInv,             "auto_off_delay": timerSec         }     }); } // Shelly doesnt support Javascript sort function so this basic math algorithm will do the sorting job function sort(array, sortby) {     // Sorting array from smallest to larger     let i, j, k, min, max, min_indx, max_indx, tmp;     j = array.length - 1;     for (i = 0; i < j; i++) {         min = max = array[i][sortby];         min_indx = max_indx = i;         for (k = i; k <= j; k++) {             if (array[k][sortby] > max) {                 max = array[k][sortby];                 max_indx = k;             }             else if (array[k][sortby] < min) {                 min = array[k][sortby];                 min_indx = k;             }         }         tmp = array[i];         array.splice(i, 1, array[min_indx]);         array.splice(min_indx, 1, tmp);         if (array[min_indx][sortby] === max) {             tmp = array[j];             array.splice(j, 1, array[min_indx]);             array.splice(min_indx, 1, tmp);         }         else {             tmp = array[j];             array.splice(j, 1, array[max_indx]);             array.splice(max_indx, 1, tmp);         }         j--;     }     return array; } function epoch() {     return Math.floor(Date.now() / 1000.0); } /* Next hour for heating calculation */ function nextChkHr() {     let chkT = s.heatingMode.isFcstUsed ? s.heatingMode.timePeriod : 24;     let hr = (Math.ceil((new Date().getHours() + 1) / chkT) * chkT) - 1;     return hr > 23 ? 23 : hr; } /** Getting prices or forecast for today if     * prices or forecast have never been fetched OR     * prices or forecast are not from today or yesterday OR     * prices or forecast needs regular update */ function isUpdtReq(ts) {     let nextHour = nextChkHr();     let now = new Date();     let yestDt = new Date(now - _.dayInSec * 1000);     let tsDt = new Date(ts * 1000);     let isToday = tsDt.getFullYear() === now.getFullYear() && tsDt.getMonth() === now.getMonth() && tsDt.getDate() === now.getDate();     let isYesterday = tsDt.getFullYear() === yestDt.getFullYear() && tsDt.getMonth() === yestDt.getMonth() && tsDt.getDate() === yestDt.getDate();     let isTsAfterChkT = new Date(ts * 1000).getHours() === nextHour;     let isChkT = now.getHours() === nextHour;     return (isChkT && !isTsAfterChkT) || !(isToday || isYesterday); } /** This loop runs in every xx seconds */ function loop() {     if (_.loopRunning) {         return;     }     _.loopRunning = true;     if (isUpdtReq(_.tsPrices) || (s.heatingMode.isFcstUsed && isUpdtReq(_.tsFcst))) {         start();     } else {         _.loopRunning = false;     } } Timer.set(_.loopFreq * 1000, true, loop); /*  ---------  WATCHDOG START  ---------   */ /** This is the watchdog script code */ let watchdog = 'let _={sId:0,mc:3,ct:0};function start(e){Shelly.call("KVS.Get",{key:"schedulerIDs"+e},(function(e,l,t,c){if(e){let l=[];l=JSON.parse(e.value),e=null,delSc(l,c.sId)}}),{sId:e})}function delSc(e,l){if(_.ct<6-_.mc)for(let t=0;t<_.mc&&t<e.length;t++){let t=e.splice(0,1)[0];_.ct++,Shelly.call("Schedule.Delete",{id:t},(function(e,t,c,i){0!==t?print("Script #"+l,"schedule ",i.id," del FAIL."):print("Script #"+l,"schedule ",i.id," del OK."),_.ct--}),{id:t})}e.length>0?Timer.set(1e3,!1,(function(){delSc(e,l)})):delKVS(l)}function delKVS(e){0===_.ct?(Shelly.call("KVS.Delete",{key:"schedulerIDs"+e}),Shelly.call("KVS.Delete",{key:"version"+e}),Shelly.call("KVS.Delete",{key:"timestamp"+e}),print("Heating script #"+e,"is clean")):Timer.set(1e3,!1,(function(){delKVS(e)}))}Shelly.addStatusHandler((function(e){"script"!==e.name||e.delta.running||(_.sId=e.delta.id,start(_.sId))}));' /** find watchdog script ID */ function createWatchdog() {     Shelly.call('Script.List', null, function (res, err, msg, data) {         if (res) {             let wdId = 0;             let s = res.scripts;             res = null;             for (let i = 0; i < s.length; i++) {                 if (s[i].name === "watchdog") {                     wdId = s[i].id;                     break;                 }             }             createScript(wdId);         }     }); } /** Create a new script (id==0) or stop the existing script (id<>0) if watchdog found. */ function createScript(id) {     if (id === 0) {         Shelly.call('Script.Create', { name: "watchdog" }, putCode, { id: id });     }     else {         Shelly.call('Script.Stop', { id: id }, putCode, { id: id });     } } /** Add code to the watchdog script */ function putCode(res, err, msg, data) {     if (err === 0) {         print(_.pId, "Watchdog script has been created.");         let scId = res.id > 0 ? res.id : data.id;         Shelly.call('Script.PutCode', { id: scId, code: watchdog }, startScript, { id: scId });     }     else {         print(_.pId, "Watchdog script creation failed.", msg, ". Schedules are not deleted if heating script is stopped or deleted.");     } } /** Enable autostart and start the watchdog script */ function startScript(res, err, msg, data) {     if (err === 0) {         print(_.pId, "Insert code to watchdog script completed.");         if (!Shelly.getComponentConfig("script", data.id).enable) {             Shelly.call('Script.SetConfig', { id: data.id, config: { enable: true } },                 function (res, err, msg, data) {                     if (err != 0) {                         print(_.pId, "Watchdog script autostart is not enabled.", msg, ". After Shelly restart, this script will not start and schedules are not deleted if heating script is stopped or deleted.");                     }                 });         }         Shelly.call('Script.Start', { id: data.id }, function (res, err, msg, data) {             if (err === 0) {                 print(_.pId, "Watchdog script started succesfully.");             }             else {                 print(_.pId, "Watchdog script is not started.", msg, ". Schedules are not deleted if heating script is stopped or deleted.");             }         });     }     else {         print(_.pId, "Adding code to the script is failed.", msg, ". Schedules are not deleted if heating script is stopped or deleted.")     } } /*  ---------  WATCHDOG END  ---------   */ createWatchdog(); loop();

[Level]

Tere. Kuna paigaldasin remondi käigus juba sonoffi niiskusandurid , siis mõtlesin , et ka põrandaküte võiks olla samas süsteemis ja nutikuse võimalusega. Kuna Sonoffil paistab, et neid termostaate seinale peaaegu pole(erinevalt tuyast). Siis mõtlesin kas Sonoff EliTite 316D temp. Controller+Sonoff WTS01 Veekindel Temperatuurisensor saaksid elektrikütte juhtimisega hakkama? Vannitoas kaabel ja muudes ruumides põrandal küttekile

[RassK]

Puhtalt küll minu mõtlemine aga küttesüsteemid võiks olla võimalikult standardsed, et vajadusel saab kontrollerit igal hetkel vahetada. Igasugu spets nutijunnid ei pruugi pooltki põranda elueast vastu pidada. Standardiga on see teema, et sinna leidub iga hetk nii vanemat kui uuemat kraami.
Ehk siis ikka NTC 10k põrandasse ja seinale toos. Ise kasutan Heatit Z-TRM3, enne seda oli tavaline Heber HT115. Kõige enam hoiaks eemale igasugu pilves istuvatest jubinatest.

[Janis]

See ongi suht standardne lahendus el põrandaküttele, nii seda juhitakse

[RassK]

Jaa see andur on küll väga "standard", iga suvaline termostaat oskab endale sellise külge võtta
Teisest küljest kui kõik kilpi mahub ja on mahavõetav ning asendatav mitte nutika süsteemiga, siis pole suuremat vahet. Samas jälle kilpi tubasteks termostaatideks ei konverteeri.