CN203052805U - Hybrid energy remote intelligent control heat supply heating system - Google Patents

Abstract

The utility model discloses a mixed energy remote intelligent control heating system, which comprises a thermal insulation water tank assembly, a controller assembly, a control terminal wirelessly connected with the controller assembly, and a solar heat collector electrically connected with the controller assembly Panel assembly, heating loop assembly, air energy heat pump assembly and gas wall-hung boiler assembly; the thermal insulation water tank assembly includes the water tank liner, and the inside of the water tank liner is sequentially arranged from top to bottom to connect with the solar collector plate assembly The solar coil, the heating coil connected with the heating loop assembly and the air energy coil connected with the air energy heat pump assembly, and the gas wall-hung boiler coil connected with the gas wall-hung boiler assembly; Temperature sensors electrically connected to the controller assembly are respectively provided on the hot plate assembly, the upper part and the lower part of the heat preservation water tank assembly. The utility model adopts the complementary use of solar energy, air energy heat pump and gas mixed energy, improves energy utilization rate, realizes wireless intelligent control, and is more convenient to use.

Description

Hybrid energy remote intelligent control heating system

technical field

The utility model relates to a heat supply and heating system, in particular to a mixed energy remote intelligent control heating and heating system.

Background technique

Traditional water storage hot water devices are generally heated by a single heat source, such as: electric energy, gas, solar energy, air source, water source, geothermal source, etc. Due to the limitation of a single heat source, the following defects will occur: 1. When the device fails, the heating and heating will often be interrupted, and normal use requirements cannot be guaranteed; The limitation of capacity, the safety of gas use, the use of solar energy in rainy days, etc. will all have certain restrictions on the use of hot water devices; 3. It cannot meet the heating and heating requirements in many aspects. Places with hot water; 4. Heating with a single heat source does not meet the environmental protection and energy saving requirements advocated by the state; Timing function, but it can't solve the requirement of heating the unit in advance and heating the house when the user is outside.

Utility model content

In order to solve the above technical problems, the utility model provides a hybrid energy remote intelligent control heating system.

The technical solution adopted by the utility model is: to provide a mixed energy remote intelligent control heating system, including heat preservation water tank assembly, solar collector plate assembly, heating loop assembly, air energy heat pump assembly, gas wall-hung boiler assembly, controller assembly, and control terminal; the heat preservation water tank assembly includes a water tank liner, the lower part of the water tank liner is provided with a water inlet pipe, and the upper part is provided with a water outlet pipe. There are solar coils, heating coils and air energy coils arranged in sequence from top to bottom. In addition, gas wall-hung boiler coils are also arranged in the inner tank of the water tank; the solar coils are connected to the solar heat collector assembly, and the The heating coil is connected to the heating loop assembly, the air energy coil is connected to the air energy heat pump assembly, the gas wall-hung boiler coil is connected to the gas wall-hung boiler assembly; the solar heat collector assembly A first temperature sensor is arranged on the upper part of the heat preservation water tank assembly, a second temperature sensor and a third temperature sensor are respectively arranged on the upper part and the lower part of the thermal insulation water tank assembly; The gas wall-hung boiler assembly and the first to third temperature sensors are all electrically connected to the controller assembly; the control terminal is connected to the controller assembly through a wireless network.

Wherein, the controller assembly includes a controller shell, a controller main board located in the controller shell, and a wireless communication module; the wireless communication module includes a 3G communication module MCU, a 3G module connected to the 3G communication module MCU and a 485 A communication circuit, an antenna and a SIM card respectively connected to the 3G module; the 485 communication circuit is connected to the controller main board.

Wherein, the solar heat collector assembly includes a solar heat collector and a first circulating pump; the solar heat collector is provided with a working medium circulation pipeline for the flow of heat transfer working medium, and the working medium circulation pipeline It is connected with the solar coil in the thermal insulation water tank assembly through a pipeline, and the first circulating pump is arranged on the connecting pipeline; the first circulating pump is electrically connected with the controller assembly.

Wherein, the solar heat collector assembly further includes an expansion tank connected to the solar heat collector.

Wherein, the heat transfer working medium in the working medium circulation pipeline is refrigerated liquid.

Wherein, the heating loop assembly includes a second circulating pump, a floor heating coil or a radiator, and a fourth temperature sensor for detecting indoor temperature; the floor heating coil or radiator and the thermal insulation water tank assembly The heating coils are connected through pipelines, and the second circulating pump is arranged on the connecting pipeline; the second circulating pump and the fourth temperature sensor are electrically connected to the controller assembly.

Wherein, the gas wall-hung boiler assembly includes a gas wall-hung boiler and a second heat transfer medium; the gas wall-hung boiler includes a combustion chamber, a heat exchanger, a water pump and an electrical control module; the heat exchanger is located in the combustion chamber , the heat exchanger is connected with the gas wall-hung boiler coil in the heat preservation water tank assembly through pipelines to form a circulation loop for the flow of the second heat transfer medium, and the water pump is arranged on the circulation loop; the water pump The electrical control module is electrically connected to the electrical control module, and the electrical control module is electrically connected to the controller assembly.

Wherein, the electrical control module includes a fan for exhausting the combustion chamber, a wind pressure switch for starting the water pump when the combustion chamber is in a negative pressure state, and a wind pressure switch for controlling the gas entering the combustion chamber after the water pump is started. gas proportional valve, used to detect flue gas and control the flue gas sensing switch to cut off the gas proportional valve under abnormal conditions; the wind pressure switch is electrically connected to the water pump and the gas proportional valve, and the flue gas sensing switch is electrically connected to The gas proportional valve.

Wherein, the inner tank of the water tank is made of enamel or stainless steel; the outer shell of the inner tank of the water tank is connected with the outer shell of the water tank, and the insulation foam material is filled between the outer shell of the water tank and the inner tank of the water tank.

Wherein, a safety valve is installed at the water inlet pipe.

The beneficial effects of the utility model are: in the heating and heating system of the utility model, a solar heat source, an air energy heat pump heat source and a gas wall-mounted boiler heat source are provided to heat the water in the water tank, and according to the solar heat source and the air energy heat pump heat source According to the temperature characteristics, its location should be reasonably designed, and the heat source of the gas wall-hung boiler can be flexibly designed according to the specific structure of the water tank. In addition, the controller assembly is also wirelessly connected to the control terminal. The use of this system has at least the following advantages: 1. When a heat source unit occurs In the event of failure, it will not affect the normal heating demand; 2. The complementary use of the hybrid heating system can reduce the operating load of the air source heat pump, improve the service life of the unit, and can effectively reduce the consumption of gas energy, and adopt segmented The way of heating can improve the utilization rate of energy and the energy efficiency of the unit; 3. It meets the requirements of energy conservation and environmental protection advocated by the country, and try to use the combination of units with high energy utilization rate; 4. It can realize the remote intelligent control of the heating system , making the operation of the system more convenient and humanized.

Description of drawings

Fig. 1 is the structural representation of an embodiment of the utility model;

Fig. 2 is the structural representation of heat preservation water tank assembly in the utility model;

Fig. 3 is the structural representation of solar heat collector in the utility model;

Fig. 4 is a structural schematic diagram of the air energy heat pump assembly of the utility model;

Fig. 5 is a structural schematic diagram of the gas wall-hung boiler assembly in the utility model;

Fig. 6 is a schematic structural diagram of the wireless communication module in the present invention.

Label description:

1. Heat preservation water tank assembly; 11. Water inlet pipe head; 12. Gas wall-hung boiler coil; 13. Third temperature sensor; 14. Heating coil; 15. Second temperature sensor; 16. Water outlet pipe head; 17. Water tank 18. Water tank liner; 19. Solar coil; 101. Thermal insulation foam; 102. Magnesium rod; 103. Air energy coil; 104. Water tank shell; 105. Water tank lower cover; 106. Water tank foot;

2. Solar heat collector assembly; 21. Solar heat collector; 22. Expansion tank; 23. Exhaust valve; 24. Circulation pump; 25. First temperature sensor; Alloy frame; 212, absorber; 213, frame and bottom plate insulation cotton; 215, galvanized bottom plate; 216, tempered glass; 217, working fluid circulation pipeline;

3. Heating loop assembly; 31. Floor heating coil; 32. Circulating pump; 33. Pipeline; 34. The fourth temperature sensor;

4. Air energy heat pump assembly; 41. Compressor; 43. Filter; 44. Throttle device; 45. Evaporator; 46. Motor; 47. Fan; 48. Electric control board;

5. Gas wall-hung boiler assembly; 501, water inlet; 503, shell structure; 504, heat exchanger; 505, air pressure switch; 506, fan; 507, exhaust port; 508, combustion chamber; 509, expansion tank ; 510, water pump; 511, gas proportional valve; 512, water outlet; 513, air inlet;

6. Controller assembly; 61. Wireless communication module; 610. 3G module; 612. 3G communication module MCU; 613. Antenna; 614. 485 Communication circuit; 615. SIM card; 616. Power module;

7. Water inlet pipeline; 8. Water terminal; 9. Control terminal; 10. Wireless network.

Detailed ways

In order to describe the technical content, structural features, achieved goals and effects of the present utility model in detail, the following will be described in detail in conjunction with the embodiments and accompanying drawings.

Please refer to Figure 1. In this embodiment, the hybrid energy remote intelligent control heating system mainly includes an insulated water tank assembly 1, a solar collector plate assembly 2, a heating loop assembly 3, and an air energy heat pump assembly 4 , Gas wall-hung boiler assembly 5, controller assembly 6, water inlet pipeline 7 and water terminal 8, control terminal 9, wireless network 10.

As shown in Figure 2, the thermal insulation water tank assembly 1 includes a shell composed of a water tank liner 18, a water tank shell 104, a water tank upper cover 17, a water tank lower cover 105 and a water tank foot 106, wherein the water tank shell 104 is sleeved in the water tank Outside the bladder 18, and between the two is filled with thermal insulation foam 101 to insulate the inner bladder 18 of the water tank. The water tank liner 18 is made of enamel or stainless steel, which can withstand high pressure and corrosion. In order to prevent scale from corroding the water tank liner 18, a magnesium rod 102 is also fixedly arranged on the water tank liner 18, and the magnesium rod 102 extends into the water tank liner 18 to prevent corrosion of the water tank liner through the principle of cathodic protection, so as to prolong the service life of the water tank Effect. Water tank liner 18 bottom is provided with water inlet pipe head 11, and top is provided with water outlet pipe head 16, and water outlet pipe head 16 is connected with water end 8, and water end 8 includes shower, faucet etc., and water inlet head 11 is connected with water inlet pipeline 7. Because the heat preservation water tank is a pressurized water tank, a safety valve is installed on the water inlet pipeline 7 to play a role in pressure relief and prevent the pressure from being too high during the heating process of the water tank.

The inside of the water tank liner 18 is provided with a solar coil 19, a heating coil 14 and an air coil 103 from top to bottom between the outlet pipe head 16 and the water inlet pipe head 11. In addition, the lower part of the water tank liner 18 is also provided with There are 12 gas wall hanging furnace coils. Wherein, the solar coil pipe 19 is connected with the solar collector plate assembly 2 to form a circulation passage, and the heat in the water tank 18 is circulated and heated by the heat of the solar energy. The heating coil 14 is connected to the heating loop assembly 3, and the water in the water tank liner 18 provides heat to the heating loop assembly 3 to heat the room. The air energy coil 103 is connected to the air energy heat pump assembly 4 to form a passage for the circulation of the refrigerant, and the phase change heat of the refrigerant is used to heat the water in the water tank liner 18 . The gas wall-hung boiler coil 12 is connected to the gas wall-hung boiler assembly 5 to form a circulation passage, and the heat generated by gas combustion is used to heat the water in the water tank liner 18 . According to the layering law of the water temperature in the water tank liner 18, for heating needs, the heating coil 14 is placed in the middle of the water tank liner 18, and the temperature of the water in this area is about 45 degrees, which just meets the heating requirements. And because the temperature of the working medium that the solar collector plate assembly 2 can provide for circulation is higher, the upper layer that the solar coil 19 is arranged on the water tank liner 18 helps to ensure the total outlet water temperature of the water tank. And in order to improve the operating efficiency of the air energy heat pump assembly 4 and reduce its operating load, the air energy coil 103 is placed in the lower part of the water tank liner 18, and the water temperature in this area is lower than that in the upper part. The temperature provided by the gas wall-hung boiler assembly 5 is relatively high, and the gas wall-hung boiler coil 12 can be placed in the lower part of the water tank liner 18 as a backup heat source for the air energy coil 103 as shown in this embodiment, or can be placed in the water tank The top of liner 18 can also directly run through the whole water tank height to evenly heat the water in the water tank to ensure the outlet water temperature. Wherein the solar coil 19, the heating coil 14 and the gas wall-hung boiler coil 12 can be made of stainless steel tube or finned steel tube, and the air energy coil 103 is used for fluorine circulation, and its material is copper tube or seamless stainless steel tube.

A first temperature sensor 25 is provided on the solar collector plate assembly 2 , and a second temperature sensor 15 and a third temperature sensor 13 are respectively provided on the upper and lower parts of the heat preservation water tank assembly 1 . The solar collector plate assembly 2 , the heating loop assembly 3 , the air energy heat pump assembly 4 , the gas wall-hung boiler assembly 5 and the temperature sensors 25 , 15 , 13 are all electrically connected to the controller assembly 6 . During work, each temperature sensor provides the collected temperature value to the controller assembly 6 so that the controller assembly 6 can pair the solar heat collector assembly 2, the heating loop assembly 3, the air energy heat pump assembly 4, and the gas wall-hung boiler assembly 5 for control.

The control terminal 9 and the controller assembly 6 are connected through a wireless network 10 . Wherein, the controller assembly 6 includes a controller shell, a controller main board located in the controller shell, and a wireless communication module; referring to FIG. 610 and 485 communication circuits 614, antenna 613 and SIM card 615 respectively connected to 3G module 610; 485 communication circuit 614 is a communication circuit using RS485/232 communication protocol, which is connected to the controller main board; in addition, power supply module 616 is a 3G The communication module MCU612 and the 3G module 610 supply power. The wireless communication module 61 can use GPRS, 3G, 4G and other wireless networks 10 to communicate with the control terminal 9 . After receiving the information from the control terminal 9, the wireless communication module 61 generates corresponding instructions after being decoded by the decoding chip, and then communicates with the corresponding unit through the controller board to make the electric control board execute corresponding control actions. The control terminal 9 may be a device that can connect to a wireless network such as a 3G mobile phone, a tablet computer, a PC with a wireless transceiver function, or other control devices that can connect to a wireless network.

From the user's point of view, the controller assembly realizes the following functions: 1. You can control the start and stop of the machine by directly operating the buttons manually; 2. You can use the control terminal to log in to the WEB browser or mobile device The installed operating software remotely controls the heating system.

The joint working principle of the system is: solar energy heat source, air energy heat pump heat source and gas heat source can heat the water tank separately, and can also heat the water tank according to the conditions of use; The heat source heats the water tank simultaneously. According to the optimal conditions of use, select a suitable heating source. For example, when there is sunlight, the solar heat collector assembly can be directly used to heat the water in the water tank, and the air energy heat pump assembly can directly heat the water in the water tank. The water is preheated, and the air energy heat pump assembly is used for auxiliary heating at this time. If the air energy heat pump cannot be turned on for some reason at this time, the gas wall-hung boiler assembly can replace the air energy heat pump assembly as the auxiliary heating heat source; The gas wall-hung boiler assembly can also be used as the main heat source, and the air energy heat pump assembly can be used as the auxiliary heat source. The solar collector assembly, the air energy heat pump assembly and the gas wall-hung boiler assembly are respectively controlled by the controller assembly. When the user goes out, the user can log in the WEB browser or the operating software installed in the Internet device through a mobile phone or other devices capable of surfing the Internet to remotely control the heating system. For example: when the sun shines, the air energy heat pump assembly can be pre-started to heat the water in the water tank. At this time, the temperature can be set lower, because the solar collector plate assembly can also be used to heat the water in the water tank. If In rainy days or at night, you can directly use the air energy heat pump assembly or gas wall-hung boiler assembly to heat the water in the water tank; at the same time, if you need to heat the room, you can use remote control to remotely operate it , reflecting the humanized requirements of product system design.

In the heating system of the present invention, there are solar heat source, air source heat pump heat source and gas wall-hung boiler heat source to heat the water in the water tank, and their positions are reasonably designed according to the temperature characteristics of the solar heat source and air source heat pump heat source, The heat source of the gas wall-hung boiler can be flexibly designed according to the specific structure of the water tank. In addition, the controller assembly is also wirelessly connected to the control terminal. The use of this system has at least the following advantages: 1. When a group of heat source units fails, it will not affect the normal operation. Heating demand; 2. The complementary use of the hybrid heating system can reduce the operating load of the air source heat pump, improve the service life of the unit, and can effectively reduce the consumption of gas energy, and adopt segmental heating to improve energy efficiency. Utilization rate and energy efficiency of the unit; 3. Conform to the requirements of energy conservation and environmental protection advocated by the state, and try to use unit combinations with high energy utilization rate; 4. Remote intelligent control of the heating system can be realized, making the operation of the system more efficient Convenient and user-friendly.

The structure of each heat source and the heating loop assembly will be introduced one by one below in conjunction with the accompanying drawings.

First refer to Fig. 3, and please combine Fig. 1 at the same time, solar heat collector assembly 2 comprises solar heat collector 21, expansion tank 22, circulation pump 24 and exhaust valve 23; Expansion tank 22 and exhaust valve 23 all connect solar energy Heat collector 21. Solar heat collector 21 includes aluminum alloy frame 211, galvanized bottom plate 215, tempered glass 216, frame and bottom plate insulation cotton 213, absorber 212, water collection and distribution pipes 210/214, working medium circulation pipeline 217, etc., working medium circulation pipe The road 217 communicates with the solar coil 19 in the insulated water tank assembly 1 through the water collecting and distributing pipes 210/214, wherein the circulating pump 24 is arranged on the pipeline where one of the water collecting and distributing pipes is connected to the solar coil 19. The working principle of the solar heat collector assembly 2 is: sunlight passes through the toughened glass 216, and the absorber 212 coated with a highly selective absorbing layer absorbs solar radiation and converts it into heat energy, and the working fluid circulation tube in the solar heat collector 21 The heat transfer working medium in the road 217 is heated so that its temperature gradually increases. When the temperature difference between the working fluid temperature T1 on the upper part of the solar collector 21 (collected by the first temperature sensor 25) and the water temperature T2 on the lower part of the water tank (collected by the third temperature sensor 13) reaches a certain value (generally set at 3°C-5°C) At this time, the controller assembly 6 controls the circulation pump 24 to start automatically, and the heat transfer working medium is circulated to the solar coil 19 of the thermal insulation water tank assembly 1 and the water in the water tank liner 18 is heated. When the water temperature T3 in the upper part of the water tank (collected by the second temperature sensor 15) reaches the set value (generally 50°C-60°C), the forced circulation pump 24 will stop working automatically. Among them, the heat transfer working medium is refrigerant to solve the problem of antifreeze in winter.

Still referring to Fig. 1, the heating loop assembly 3 includes a floor heating coil 31 (which can also be a radiator), a circulation pump 32, a fourth temperature sensor 34, pipelines 33, etc.; the floor heating coil 31 communicates with the heating plate through the pipeline 33 The pipes 14 are connected to form a circulation passage, and the circulation pump 32 is provided on the connection pipe. The fourth temperature sensor 34 and the circulation pump 32 are electrically connected to the controller assembly 6. The fourth temperature sensor 34 collects the indoor temperature. The temperature difference of the temperature, choose to start and stop, so as to heat the house.

Referring again to FIG. 4 , the air source heat pump assembly 4 includes a compressor 41 , an evaporator 45 , a throttling device 44 , a fan 47 , a motor 46 , an electric control board 48 and the like. The compressor 41, the evaporator 45, and the throttling device 44 are connected through copper pipes, and connected with the air energy coil 103 in the water tank through connecting pipes to form a closed loop for the circulation of refrigerant (also called refrigerant) , its working principle is: the compressor 41 starts and compresses the low-temperature gas from the evaporator 45, and discharges the high-temperature and high-pressure gas from the exhaust port of the compressor 41. The tube 103 exchanges heat with the water around it, and the refrigerant after heat release becomes a high-pressure medium-temperature liquid, and then passes through the throttling device 44, and the refrigerant becomes a low-temperature and low-pressure liquid, and then enters the evaporator 45, passes through the fan 47 and the motor 46 performs forced heat exchange on it, so that the refrigerant quickly absorbs the heat from the air, and the refrigerant after absorbing the heat becomes a low-temperature and low-pressure gas, and finally the gas is sucked back by the compressor 41, thus completing a working cycle. The water in the water tank is Through the continuous circulation of the refrigerant, it is continuously heated. The filter 43 is arranged before the throttling device 44 for filtering the refrigerant.

The gas wall-hung boiler assembly 5 includes a gas wall-hung boiler and a heat transfer medium; referring to FIG. 5 , the gas-fired wall-hung boiler includes a shell structure 503, and a combustion chamber 508 is provided in the shell structure 503, and a heat exchange chamber is provided in the combustion chamber 508. The water inlet 501 and the water outlet 512 are connected to the heat exchanger 504 on the shell structure 503, and the water pump 510 is arranged on the pipeline connecting the water outlet 512 and the heat exchanger 504, and the water inlet 501 and the water outlet 512 is used to connect the gas wall-hung boiler coil 12 in the thermal insulation water tank assembly 1, so that the heat exchanger 504 and the gas wall-hung boiler coil 12 form a circulation loop for the flow of heat transfer medium, and the water pump 510 provides heat transfer work. Momentum for mass flow. When working, the gas enters the combustion chamber 508 through the air inlet 513 and burns to generate heat, which heats the heat transfer medium in the heat exchanger 504, and the water pump 510 circulates the heat transfer medium through the gas wall-hung boiler coil 12 to heat the inner tank 18 of the water tank of water. The heat transfer medium can be refrigerant or water.

The water pump 510 is controlled and started by the electrical control module of the gas wall-hung boiler, wherein the electrical control module includes a fan 506 for exhausting the combustion chamber 508, and a wind pressure switch for starting the water pump 510 when the combustion chamber 508 is in a negative pressure state 505. The gas proportional valve 511 installed at the air inlet 513 is used to control the amount of gas entering the combustion chamber 508 after the water pump 510 is started. It is used to detect the smoke and control the gas sensor to cut off the gas proportional valve 511 under abnormal conditions. switch (not shown in the figure); the air pressure switch 505 is electrically connected to the water pump 510 and the gas proportional valve 511 , and the smoke sensing switch is electrically connected to the gas proportional valve 511 . The working principle is: when the ignition switch of the gas wall-hung boiler enters the working state, the fan 506 starts first to form a negative pressure difference in the combustion chamber 508, and the air pressure switch 505 sends an instruction to the water pump 510. The water flow switch sends instructions to the high-voltage discharger (for ignition to make the gas burn), and after it starts, the instructions are sent to the gas proportional valve 511, and the gas proportional valve 511 starts to start. The gas proportional valve 511, wind pressure switch 505 and flue gas sensor switch are interlocked. The combustion chamber 508 has a certain negative pressure, and the gas proportional valve 511 can work. When exhaust gas is discharged from the exhaust port 507, the gas proportional valve 511 is cut off to stop the gas supply, thereby ensuring the safe use of gas.

Since the temperature in the gas wall-hung boiler varies greatly, in order to compensate for the pressure change, an expansion tank 509 is provided inside the shell structure 503 of the gas wall-hung boiler, and the expansion tank 509 is located outside the combustion chamber 508 .

The above is only an embodiment of the utility model, and does not limit the patent scope of the utility model. Any equivalent structure or equivalent process conversion made by using the utility model specification and accompanying drawings, or directly or indirectly used in other Related technical fields are all included in the patent protection scope of the present utility model in the same way.

Claims (10)

1. A hybrid energy remote intelligent control heating system, characterized in that it includes an insulated water tank assembly, a solar heat collector assembly, a heating loop assembly, an air energy heat pump assembly, a gas wall-hung boiler assembly, a control Device assembly, control terminal; The thermal insulation water tank assembly includes a water tank liner. The lower part of the water tank liner is provided with a water inlet pipe, and the upper part is provided with a water outlet pipe. The interior of the water tank liner is sequentially provided with solar coils, heating pipes, etc. between the water outlet pipe and the water inlet pipe from top to bottom. Coil and air energy coil, in addition, there is a gas wall-hung boiler coil in the inner tank of the water tank; the solar coil is connected to the solar collector plate assembly, and the heating coil is connected to the heating loop assembly , the air energy coil is connected to the air energy heat pump assembly, and the gas wall-hung boiler coil is connected to the gas wall-hung boiler assembly; A first temperature sensor is provided on the solar collector plate assembly, and a second temperature sensor and a third temperature sensor are respectively provided on the upper part and the lower part of the thermal insulation water tank assembly; The solar heat collector assembly, heating loop assembly, air energy heat pump assembly, gas wall-hung boiler assembly, and the first to third temperature sensors are all electrically connected to the controller assembly; the control terminal is connected to the The above controller assembly is connected via wireless network. 2. The hybrid energy remote intelligent control heating system according to claim 1, characterized in that: the controller assembly includes a controller housing, a controller main board and a wireless communication module located in the controller housing; The wireless communication module includes a 3G communication module MCU, a 3G module connected to the 3G communication module MCU and a 485 communication circuit, an antenna and a SIM card respectively connected to the 3G module; the 485 communication circuit is connected to the controller main board. 3. The hybrid energy remote intelligent control heating heating system according to claim 1, characterized in that: the solar heat collector assembly includes a solar heat collector and a first circulating pump; There is a working medium circulation pipeline for the flow of heat transfer working medium, the working medium circulation pipeline is connected with the solar coil in the thermal insulation water tank assembly through pipelines, and the first circulation pump is arranged on the connecting pipeline ; The first circulating pump is electrically connected to the controller assembly. 4. The hybrid energy remote intelligent control heating system according to claim 3, characterized in that: the solar collector plate assembly further includes an expansion tank connected to the solar heat collector. 5. The hybrid energy remote intelligent control heating system according to claim 3, characterized in that: the heat transfer working medium in the working medium circulation pipeline is refrigerated liquid. 6. The hybrid energy remote intelligent control heating system according to claim 1, characterized in that: the heating loop assembly includes a second circulation pump, floor heating coils or radiators, a first Four temperature sensors; the floor heating coil or radiator is connected to the heating coil in the heat preservation water tank assembly through pipelines, and the second circulation pump is arranged on the connecting pipeline; the second circulation pump and the The fourth temperature sensor is electrically connected to the controller assembly. 7. The hybrid energy remote intelligent control heating system according to claim 1, characterized in that: the gas wall-hung boiler assembly includes a gas wall-hung boiler and a second heat transfer medium; the gas wall-hung boiler includes a combustion chamber , a heat exchanger, a water pump, and an electrical control module; the heat exchanger is located in the combustion chamber, and the heat exchanger is connected to the gas wall-hung boiler coil in the thermal insulation water tank assembly through pipelines to form a power supply for the second transmission A circulation circuit for the flow of thermal working medium, the water pump is arranged on the circulation circuit; the water pump is electrically connected to the electrical control module, and the electrical control module is electrically connected to the controller assembly. 8. The hybrid energy remote intelligent control heating system according to claim 7, characterized in that: the electrical control module includes a fan for exhausting the combustion chamber, and is used for the combustion chamber to be in a negative pressure state. Start the wind pressure switch of the water pump, the gas proportional valve used to control the amount of gas entering the combustion chamber after the water pump is started, the gas sensor switch used to detect the gas and control the gas proportional valve to cut off the gas proportional valve under abnormal conditions; The wind pressure switch is electrically connected to the water pump and the gas proportional valve, and the flue gas induction switch is electrically connected to the gas proportional valve. 9. The hybrid energy remote intelligent control heating system according to any one of claims 1-8, characterized in that: the water tank liner is made of enamel or stainless steel; Insulation foam material is filled between the inner tank and the water tank. 10. The hybrid energy remote intelligent control heating system according to any one of claims 1-8, characterized in that a safety valve is installed at the water inlet pipe.

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