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Community Beta HVAC integration

MiniHPC Heat Pump Controller

MiniHPC is a DIY controller that turns the outdoor unit of a split air conditioner into an air-to-water heat pump for heating, cooling and hot water. TapHome connects to it over MQTT through a local broker such as Mosquitto. It switches the operating mode, sets water and hot water temperatures, starts hot water heating and defrost, limits power and reads temperatures, energy and relay states.

Packet Parser → MQTT14 devicesRevision 1.0 Last updated: November 12, 2026

Submitted by Martin

Import into the TapHome appHardware › Packet Parser › Add from template

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Network address
With the MQTT broker built into TapHome, enter 127.0.0.1 as the broker address in TapHome. In the device, enter the IP address of the TapHome Core and give the Core an IP reservation in the router.
Network Preparation

Integration guide

MiniHPC is a DIY heat pump controller from the Slovak manufacturer MiniHPC. Installed between the outdoor unit of an ordinary split air conditioner and a water circuit, it turns the outdoor unit into an air-to-water heat pump for space heating, cooling and domestic hot water (DHW). The controller drives the circulation pump, the three-way valves and the electric backup heaters through its own relays and measures the water, refrigerant and room temperatures with NTC sensors.

TapHome talks to MiniHPC over MQTT. Both connect to the same MQTT broker in the local network (for example Mosquitto): MiniHPC publishes its measurements and configuration to the broker and accepts setting changes and commands from it. This community template reads the operating data and lets TapHome switch the operating mode, change the water and DHW setpoints, start DHW heating and defrosting, limit the power and send external sensor values to the controller.

Hardware connection

MiniHPC works with mains voltage and is connected to the refrigerant circuit of the outdoor unit. Wiring must be done by a qualified electrician and, for the refrigerant side, a qualified refrigeration technician.

Mounting

MiniHPC is mounted on a DIN rail in a distribution board at least 9 modules wide, ideally as close as possible to the heat exchanger — the supplied NTC sensors and the flow sensor have 3 m cables.
If the board holds other devices (circuit breakers, relays, energy meters), place MiniHPC at the far right, with nothing to its right. The Wi-Fi antenna sits in its upper right corner and nearby devices could interfere with it.
Route the power cables separately from the low-voltage cables of the NTC sensors and the flow sensor.
The controller has no mains switch of its own. The installer must add an easily accessible all-pole disconnecting device (for example a two-pole circuit breaker or switch disconnecting L and N) to the fixed installation in the board.

Wiring diagram

MiniHPC electrical connection diagram: controller terminals R1-R5, S1-S2, outdoor unit and NTC sensors T1-T6.

The Outdoor terminal block of MiniHPC (N, communication, L, PE) is wired to terminals 1, 2, 3 and PE of the outdoor unit (N + communication + L + PE) with a cable of at least 4 × 0.75 mm². The controller is powered through this terminal, and so are the loads on R3, R4 and R5, which share a common 3 A fuse.

Terminal	Type	Primary function	Alternative function
T1	NTC 10 kΩ input	Indoor air temperature	Can be replaced by a Bluetooth sensor
T2	NTC 10 kΩ input	Heating water entering the heat exchanger	—
T3	NTC 10 kΩ input	Heated water leaving the heat exchanger	—
T4	NTC 10 kΩ input	Heating water after the electric backup heater	—
T5	NTC 10 kΩ input	Water in the DHW tank	—
T6	NTC 10 kΩ input	Liquid refrigerant pipe (1/4" pipe, bottom left of the heat exchanger)	—
I1	5 V pulse input	Heating water flow sensor	—
R1	230 V relay, 10 A	Electric heater in the DHW tank	Outdoor unit base heater
R2	230 V relay, 10 A	Electric backup heater of the heating water	Outdoor unit base heater
R3	230 V, switched phase + N + PE	Circulation pump of the heating circuit	—
R4	230 V, switched phase + L + N + PE	Three-way valve DHW / heating	Outdoor unit base heater
R5	230 V, switched phase + L + N + PE	Three-way valve ceiling cooling / heating	Outdoor unit base heater
S1	Potential-free input	Flow switch of the heating circuit	External energy meter with S0 output
S2	Potential-free input	External on/off wired thermostat	External energy meter with S0 output

T6 is mandatory. T2 or T3 is mandatory when that sensor is used for temperature control, and T5 is mandatory when DHW heating is on. Tape T2, T3, T4 and T6 to the pipe with aluminium tape and insulate them.
T1 belongs indoors, away from heat sources such as a fireplace, direct sunlight or a stove. It can be replaced by a Xiaomi Mijia LYWSD03MMC Bluetooth temperature and humidity sensor running the alternative ATC firmware.
I1 is set by default to 476 pulses per litre (YF-B10 sensor); the value is changed in the flow meter calibration menu (7.3) for another sensor type.
R1 and R2 carry 10 A. A heater drawing more current must be switched through an external auxiliary relay or contactor. The R2 backup heater is off by default.
R4 and R5 have four terminals: N, L4/L5, L and PE. L is permanently live and L4/L5 is switched. Valves with a single-phase SPST actuator connect directly; valves with an SPDT actuator (two phase inputs) need an auxiliary changeover relay between the output and the valve.
S1 and S2 are for potential-free contacts or transistor (S0) outputs of energy meters only.

Never connect any voltage source to the S1 and S2 inputs.

Hydraulic diagram

MiniHPC hydraulic connection diagram of the heating circuit with plate heat exchanger, pump and three-way valves.

The diagram shows where the sensors and outputs sit in the water circuit: T2 and T3 at the inlet and outlet of the plate heat exchanger, T6 on the refrigerant pipe, the flow sensor (S1/I1) and the R3 pump in the return, R5 switching to the ceiling cooling, R2 as the electric backup heater with T4 behind it, R4 switching to the DHW tank with the R1 heater and T5 inside.

Configuration

Connecting MiniHPC to the local network

Connect MiniHPC to the home Wi-Fi network following menu 9.2 WiFi AP in the manufacturer’s manual. Once connected, a white Wi-Fi icon appears next to the clock in the upper right corner of the display.
Read the controller’s IP address in menu 9.1 WiFi station. The address is assigned by the DHCP server of the network; only IPv4 is supported. The same menu shows the Wi-Fi signal strength (RSSI) and the MQTT connection state.

Preparing the MQTT broker

TapHome and MiniHPC need a working MQTT broker in the same local network, for example Mosquitto. Note its IP address and TCP port (usually 1883); they are the only two values the template asks for when it is imported.

Enabling MQTT on MiniHPC

Open the IP address of MiniHPC in a web browser and choose the MQTT menu. The page asks for the name and password shown in menu 9.2 WiFi AP on the controller.
Fill in the MQTT settings:

Setting	Value
Enable MQTT	On
MQTT broker IP	IP address of the broker in the local network
MQTT port	TCP port of the broker
MQTT user name / MQTT password	Credentials for the broker, if it requires them
MQTT Root topic	`miniHPC` — the template listens only on `miniHPC/#`
MQTT Birth topic	Optional — any message on this topic makes MiniHPC publish its complete configuration and all data
MQTT update interval	How often MiniHPC sends measured data to the broker

On the controller, open menu 9.4 Permissions and allow MQTT under remote control permissions. Without it, MiniHPC ignores everything sent to the set, setns, setsensor and cmd topics, so TapHome can read values but cannot change anything.
Check menu 9.1 WiFi station: the MQTT state must show Connected.

The template has the root topic miniHPC fixed in its scripts. If several MiniHPC controllers share one broker, the manufacturer requires a unique root topic for each of them — this template then only works with the controller that keeps miniHPC.

MQTT topics used

Topic	Direction	Use in the template
`miniHPC/data/#`	MiniHPC publishes	Measured data. A value is sent only when it changes; all values are sent at start-up and after any settings change.
`miniHPC/config/#`	MiniHPC publishes	Current configuration (mode, setpoints, power limit)
`miniHPC/set/PARAMETER`	TapHome writes	Setting changes, stored permanently in the controller’s memory
`miniHPC/setsensor/SENSOR`	TapHome writes	External sensor values T1, Tout and RH
`miniHPC/cmd/COMMAND`	TapHome writes	Commands: DHW heating and outdoor unit defrost

The template writes all settings to miniHPC/set/, which saves them to the controller’s memory. That memory has a limited number of write cycles. Normal use does not wear it out, but a smart rule that changes setpoints or modes several times a minute should not drive these devices. For such automation the manufacturer provides miniHPC/setns/, which applies a change without storing it; this template does not use it.

In TapHome, import the template on the control unit and enter the IP address and port of the MQTT broker (defaults 192.168.0.1 and 1883).

Device capabilities

The device names in the template are in Slovak; the table lists them as they appear in the TapHome app.

Device	Name in the template	What it does
Operating mode	Prevádzkový stav	Switches MiniHPC between Off, Heating and Cooling (Vypnuté / Kúrenie / Chladenie)
Heating water setpoint	Vykurovacia teplota vody	Fixed target of the T2/T3 outlet water for heating, 15–55 °C (menu 1.2)
Cooling water setpoint	Chladiaca teplota vody	Fixed target of the T2/T3 outlet water for cooling, 10–25 °C (menu 2.2)
Room temperature	Izbová teplota	Room temperature from sensor T1
DHW heating on/off	TÚV – zapnutie	Enables or disables DHW heating (menu 3.1)
DHW target temperature	TÚV – cieľová teplota	DHW target temperature, 20–80 °C
Outdoor unit	Vonkajšia jednotka	Compressor power input in W
Heating energy	Energia – kúrenie	Electricity used for heating in kWh
Cooling energy	Energia – chladenie	Electricity used for cooling in kWh
DHW energy	Energia – TÚV	Electricity used for DHW heating in kWh
System temperatures	Teploty systému	Outdoor temperature (Tout)
Relays and inputs	Diagnostika – relé a vstupy	State of relay R1 (DHW electric heater)
Bluetooth sensor	Bluetooth senzor	Temperature and humidity from the paired Bluetooth sensor
System settings	Nastavenia systému	Outdoor unit power limit: no limit, 70 % or 50 % (menu 13.2)

MiniHPC reports energy in mWh; the template converts it to kWh.

DHW heating

The DHW heating on/off device has four service actions that send commands to miniHPC/cmd/dhw:

Start DHW heating (Spustiť TÚV ohrev) and Stop DHW heating (Zastaviť TÚV ohrev) — starts heating or stops heating in progress.
Anti-legionella heating (Protilégionelový ohrev) — forces DHW heating to the temperature set in menu 3.3 Anti-legionella.
Turbo DHW heating (Turbo TÚV ohrev) — heats with the compressor and the electric DHW heater at the same time.

Outdoor unit and energy

Service attributes of the Outdoor unit device: compressor state, outdoor unit mode (Cool, Dry, Fan, Heat), compressor frequency (Hz), fan speed (RPM), expansion valve (EEV) position, inverter DC voltage (V), compressor current (A), defrost active and the current heat output of the heat pump (W). The service action Manual defrost (Manuálne odmrazovanie) starts defrosting of the outdoor unit.

Heating energy also shows the heat produced for heating, and DHW energy the heat produced for DHW together with the total compressor running time (h) and total number of compressor starts — these two counters cover the compressor in all modes, not DHW only.

Temperatures and diagnostics

Service attributes of System temperatures: T2 (water entering the heat exchanger), T3 (water leaving it), T4 (after the electric backup heater), T5 (DHW tank), T6 (liquid refrigerant pipe), evaporator temperature (Tsuc), compressor discharge temperature (Texh), the temperature set by the controller and the heating water flow in l/min.

Relays and inputs shows R1 as its main state and R2 (electric backup heater of the heating water), R3 (circulation pump), R4 (DHW three-way valve), R5 (cooling three-way valve) and inputs S1 and S2 as service attributes.

The Bluetooth sensor adds battery level (%) and signal strength (RSSI, dBm) as service attributes. Reading of the Bluetooth sensor is switched on in the controller in menu 2.6.

System settings and sensor injection

Service actions of the System settings device:

Night mode (Nočný režim) — Off, Always on or Time-based (menu 13.3).
System power limit (Limit výkonu systému) — 0–5000 W (menu 7.4).
R2 electric heating mode (Režim elektrického vykurovania R2) — heat pump only, heat pump + electric backup, heat pump or electric backup, electric backup only (menu 1.5).
T1 sensor injection, Tout sensor injection, RH sensor injection (Injekcia senzora T1 / Tout / RH) — send a room temperature, outdoor temperature or indoor relative humidity to miniHPC/setsensor/. MiniHPC then uses the value instead of the physical sensor (T1 replaces the indoor sensor, Tout the outdoor temperature measured by the outdoor unit).

An injected sensor value is valid for 60 minutes, then MiniHPC discards it. Send it repeatedly, more often than once an hour — the manufacturer recommends once a minute, for example from a TapHome smart rule.

Troubleshooting

TapHome shows no values

Check that menu 9.1 WiFi station shows the MQTT state as Connected.
Check that the broker IP address and port entered in TapHome match the broker MiniHPC uses.
Check that the MQTT Root topic on MiniHPC is miniHPC.
MQTT Explorer, recommended by the manufacturer, shows everything MiniHPC publishes on the broker.

Values are shown, but MiniHPC ignores changes from TapHome

Allow MQTT in menu 9.4 Permissions. Without this permission MiniHPC ignores the set, setns, setsensor and cmd topics.

Some values stay empty after TapHome or the broker restarts

MiniHPC sends a value only when it changes, and sends everything at start-up or after a settings change. Set the MQTT Birth topic on MiniHPC — any message published to it makes MiniHPC send the complete configuration and all data again.

An injected sensor value stopped working

Injected values T1, Tout and RH expire after 60 minutes. Repeat the injection regularly, ideally once a minute.

Available devices 14

These devices appear in TapHome after import.

MiniHPC MQTT modul Module

Prevádzkový stav Multi-value Switch

Values / States: Vypnuté · Kúrenie · Chladenie

Prevádzkový stav

Read switch state

RETURN(Mu);

Write switch state

MQTTPUBLISH("miniHPC/set/mode", TOSTRING(Mu));

Listener

IF(INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/") != 0)
    RETURN(0);
END
IF(RECEIVEDMSG.TOPIC = "miniHPC/config/mode")
    Mu := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Vykurovacia teplota vody Variable

Vykurovacia teplota vody

Read

RETURN(Va);

Write

MQTTPUBLISH("miniHPC/set/temperature_T3", TOSTRING(Va));

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/config/temperature_T3")
    Va := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Chladiaca teplota vody Variable

Chladiaca teplota vody

Read

RETURN(Va);

Write

MQTTPUBLISH("miniHPC/set/temperature_T3_cool", TOSTRING(Va));

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/config/temperature_T3_cool")
    Va := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Izbová teplota Temperature Sensor

TÚV – zapnutie Switch

Values / States: Zapnuté · Vypnuté

Service Actions

Spustiť TÚV ohrev

Zastaviť TÚV ohrev

Protilégionelový ohrev

Turbo TÚV ohrev

TÚV – zapnutie

Read switch state

RETURN(St);

Write switch state

MQTTPUBLISH("miniHPC/set/dhw_onoff", IF(St = 1, "1", "0"));

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/config/dhw_onoff")
    St := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Actions

Spustiť TÚV ohrev

MQTTPUBLISH("miniHPC/cmd/dhw", "on");

Zastaviť TÚV ohrev

MQTTPUBLISH("miniHPC/cmd/dhw", "off");

Protilégionelový ohrev

MQTTPUBLISH("miniHPC/cmd/dhw", "al");

Turbo TÚV ohrev

MQTTPUBLISH("miniHPC/cmd/dhw", "turbo");

TÚV – cieľová teplota Variable

TÚV – cieľová teplota

Read

RETURN(Va);

Write

MQTTPUBLISH("miniHPC/set/dhw_temp_target", TOSTRING(Va));

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/config/dhw_temp_target")
    Va := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Vonkajšia jednotka Variable

Service Attributes

Stav kompresora

Režim vonkajšej jednotky

Frekvencia kompresora

Otáčky ventilátora

Poloha expanzného ventilu (EEV)

Napätie DC zbernice

Prúd kompresora

Odmrazovanie aktívne

Výstupný výkon TČ

Service Actions

Manuálne odmrazovanie

Variable: ouPwr, Variable: ouFreq, Variable: ouFan, Variable: ouEEV, Variable: ouDCbus, Variable: ouDCcurr, Variable: ouDefrost, Variable: ouMode, Variable: ouState, Variable: ouPwrOut

Vonkajšia jednotka

Read

RETURN(Va);

Listener

IF(INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/out") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/pwrOutHP") != 0)
    RETURN(0);
END
IF(RECEIVEDMSG.TOPIC = "miniHPC/data/outPower")
    ouPwr := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
    Va := ouPwr;
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outFrequency")
    ouFreq := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outFan")
    ouFan := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outEEV")
    ouEEV := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outDCbus")
    ouDCbus := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outDCcurrent")
    ouDCcurr := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outDefrost")
    ouDefrost := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outMode")
    ouMode := TOSTRING(RECEIVEDMSG.PAYLOAD);
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/outState")
    ouState := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/pwrOutHP")
    ouPwrOut := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Attributes

Stav kompresora

IF(ouState = 1, "Zapnutý", "Vypnutý");

Režim vonkajšej jednotky

IF(LENGTH(ouMode) = 0, "Neznámy", ouMode);

Frekvencia kompresora

TOSTRING(ouFreq, "F0") + " Hz";

Otáčky ventilátora

TOSTRING(ouFan, "F0") + " RPM";

Poloha expanzného ventilu (EEV)

TOSTRING(ouEEV, "F0");

Napätie DC zbernice

TOSTRING(ouDCbus, "F1") + " V";

Prúd kompresora

TOSTRING(ouDCcurr, "F1") + " A";

Odmrazovanie aktívne

IF(ouDefrost = 1, "Áno", "Nie");

Výstupný výkon TČ

TOSTRING(ouPwrOut, "F0") + " W";

Service Actions

Manuálne odmrazovanie

MQTTPUBLISH("miniHPC/cmd/odu", "defrost");

Energia – kúrenie Electricity Meter

Service Attributes

Vyprodukovaná tepelná energia – kúrenie

Variable: hPwrIn, Variable: hPwrOut

Energia – kúrenie

Read total consumption

RETURN(To);

Read demand

RETURN(NaN);

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/data/heatPwrIn")
    hPwrIn := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD)) / 1000000.0;
    To := hPwrIn;
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/heatPwrOutHP")
    hPwrOut := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD)) / 1000000.0;
END

Service Attributes

Vyprodukovaná tepelná energia – kúrenie

TOSTRING(hPwrOut, "F3") + " kWh";

Energia – chladenie Variable

Energia – TÚV Electricity Meter

Service Attributes

Vyprodukovaná tepelná energia – TÚV

Celkový čas behu kompresora

Celkový počet spustení kompresora

Variable: dhwPwrIn, Variable: dhwPwrOut, Variable: comprT, Variable: comprC

Energia – TÚV

Read total consumption

RETURN(To);

Read demand

RETURN(NaN);

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/data/dhwPwrIn")
    dhwPwrIn := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD)) / 1000000.0;
    To := dhwPwrIn;
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/dhwPwrOut")
    dhwPwrOut := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD)) / 1000000.0;
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/comprTime")
    comprT := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/comprCount")
    comprC := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Attributes

Vyprodukovaná tepelná energia – TÚV

TOSTRING(dhwPwrOut, "F3") + " kWh";

Celkový čas behu kompresora

TOSTRING(ROUND(comprT / 3600.0), "F0") + " h";

Celkový počet spustení kompresora

TOSTRING(comprC, "F0") + " x";

Teploty systému Temperature Sensor

Service Attributes

Teplota T2

Teplota T3 (výstup vody)

Teplota T4

Teplota T5 (TÚV)

Teplota T6

Teplota výparníka (Tsuc)

Teplota výfuku kompresora (Texh)

Nastavená teplota regulátora

Prietok vody

Variable: sT2, Variable: sT3, Variable: sT4, Variable: sT5, Variable: sT6, Variable: sTsuc, Variable: sTex, Variable: sTout, Variable: sTset, Variable: sFlow

Teploty systému

Read temperature

RETURN(Te);

Listener

IF(INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/t") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/tout") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/tsuc") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/texh") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/tset") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/flow") != 0)
    RETURN(0);
END
IF(RECEIVEDMSG.TOPIC = "miniHPC/data/tout")
    sTout := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
    Te := sTout;
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/t2")
    sT2 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/t3")
    sT3 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/t4")
    sT4 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/t5")
    sT5 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/t6")
    sT6 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/tsuc")
    sTsuc := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/texh")
    sTex := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/tset")
    sTset := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/flow")
    sFlow := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Attributes

Teplota T2

TOSTRING(sT2, "F1") + " °C";

Teplota T3 (výstup vody)

TOSTRING(sT3, "F1") + " °C";

Teplota T4

TOSTRING(sT4, "F1") + " °C";

Teplota T5 (TÚV)

TOSTRING(sT5, "F1") + " °C";

Teplota T6

TOSTRING(sT6, "F1") + " °C";

Teplota výparníka (Tsuc)

TOSTRING(sTsuc, "F1") + " °C";

Teplota výfuku kompresora (Texh)

TOSTRING(sTex, "F1") + " °C";

Nastavená teplota regulátora

TOSTRING(sTset, "F1") + " °C";

Prietok vody

TOSTRING(sFlow, "F1") + " l/min";

Diagnostika – relé a vstupy Reed Contact

Service Attributes

Relé R2

Relé R3

Relé R4

Relé R5

Vstup S1

Vstup S2

Variable: dR1, Variable: dR2, Variable: dR3, Variable: dR4, Variable: dR5, Variable: dS1, Variable: dS2

Diagnostika – relé a vstupy

Read

RETURN(St);

Listener

IF(INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/R") != 0 AND INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/S") != 0)
    RETURN(0);
END
IF(RECEIVEDMSG.TOPIC = "miniHPC/data/R1")
    dR1 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
    St := dR1;
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/R2")
    dR2 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/R3")
    dR3 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/R4")
    dR4 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/R5")
    dR5 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/S1")
    dS1 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/S2")
    dS2 := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Attributes

Relé R2

IF(dR2 = 1, "Aktívne", "Neaktívne");

Relé R3

IF(dR3 = 1, "Aktívne", "Neaktívne");

Relé R4

IF(dR4 = 1, "Aktívne", "Neaktívne");

Relé R5

IF(dR5 = 1, "Aktívne", "Neaktívne");

Vstup S1

IF(dS1 = 1, "Aktívne", "Neaktívne");

Vstup S2

IF(dS2 = 1, "Aktívne", "Neaktívne");

Bluetooth senzor Temperature Sensor

Service Attributes

BT senzor – úroveň batérie

BT senzor – sila signálu (RSSI)

Variable: btHum, Variable: btBat, Variable: btRssi

Bluetooth senzor

Read humidity

RETURN(btHum);

Read temperature

RETURN(Te);

Listener

IF(INDEXOF(RECEIVEDMSG.TOPIC, "miniHPC/data/BT") != 0)
    RETURN(0);
END
IF(RECEIVEDMSG.TOPIC = "miniHPC/data/BTtemp")
    Te := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/BThum")
    btHum := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/BTbat_lev")
    btBat := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
ELSEIF(RECEIVEDMSG.TOPIC = "miniHPC/data/BTrssi")
    btRssi := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Attributes

BT senzor – úroveň batérie

TOSTRING(btBat, "F0") + " %";

BT senzor – sila signálu (RSSI)

TOSTRING(btRssi, "F0") + " dBm";

Nastavenia systému Multi-value Switch

Values / States: Bez obmedzenia · Obmedzenie na 70 % · Obmedzenie na 50 %

Service Actions

Nočný režim

Limit výkonu systému

Režim elektrického vykurovania R2

Injekcia senzora T1

Injekcia senzora Tout

Injekcia senzora RH

Nastavenia systému

Read switch state

RETURN(Mu);

Write switch state

MQTTPUBLISH("miniHPC/set/odu_power_limit", TOSTRING(Mu));

Listener

IF(RECEIVEDMSG.TOPIC = "miniHPC/config/odu_power_limit")
    Mu := TODOUBLE(TOSTRING(RECEIVEDMSG.PAYLOAD));
END

Service Actions

Nočný režim

Parameters: Režim

MQTTPUBLISH("miniHPC/set/odu_night_mode", TOSTRING(nm));

Limit výkonu systému

Parameters: Výkon (W) (0–5000 pw)

MQTTPUBLISH("miniHPC/set/power_limit", TOSTRING(pw));

Režim elektrického vykurovania R2

Parameters: Režim

MQTTPUBLISH("miniHPC/set/heating_elh_mode", TOSTRING(em));

Injekcia senzora T1

Parameters: Teplota T1 (°C) (-30–60 t1v)

MQTTPUBLISH("miniHPC/setsensor/T1", TOSTRING(t1v));

Injekcia senzora Tout

Parameters: Vonkajšia teplota (°C) (-40–60 tov)

MQTTPUBLISH("miniHPC/setsensor/Tout", TOSTRING(tov));

Injekcia senzora RH

Parameters: Relatívna vlhkosť (%) (0–100 rhv)

MQTTPUBLISH("miniHPC/setsensor/RH", TOSTRING(rhv));

Connection: Packet Parser → MQTT

Import parameters

Enter these values when you import the XML.

Asked in the app	Default
IP adresa MQTT brokera	`192.168.0.1`
Port MQTT brokera	`1883`

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Template · TapHome portal MiniHPC Heat Pump Controller Open this template in the Customer Portal to apply it to one of your homes, or to draft a refinement and submit it back to the catalog. Packet Parser → MQTT View in TapHome portal

MiniHPC Heat Pump Controller

Integration guide

Hardware connection

Mounting

Wiring diagram

Hydraulic diagram

Configuration

Connecting MiniHPC to the local network

Preparing the MQTT broker

Enabling MQTT on MiniHPC

MQTT topics used

Device capabilities

DHW heating

Outdoor unit and energy

Temperatures and diagnostics

System settings and sensor injection

Troubleshooting

Available devices 14

Import parameters

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Integration guide

Hardware connection#

Mounting

Wiring diagram

Hydraulic diagram

Configuration#

Connecting MiniHPC to the local network

Preparing the MQTT broker

Enabling MQTT on MiniHPC

MQTT topics used

Device capabilities#

DHW heating

Outdoor unit and energy

Temperatures and diagnostics

System settings and sensor injection

Troubleshooting#

Available devices 14

Prevádzkový stav

Vykurovacia teplota vody

Chladiaca teplota vody

Izbová teplota

TÚV – zapnutie

TÚV – cieľová teplota

Vonkajšia jednotka

Energia – kúrenie

Energia – chladenie

Energia – TÚV

Teploty systému

Diagnostika – relé a vstupy

Bluetooth senzor

Nastavenia systému

Import parameters

Related Documentation

Found a problem with this device template?

Hardware connection

Configuration

Device capabilities

Troubleshooting