Livestock and poultry breeding cold and warm environment adjusting and drinking water heating integrated energy supply system

Abstract

The utility model relates to a livestock and poultry breeding cold and warm environment adjusting and drinking water heating integrated energy supply system which comprises a nursing house, a fattening house, a solar energy system, an energy gathering module and an air energy system. The energy gathering module comprises a heat gathering water tank, a first heat exchanger, a second heat exchanger and an electric heater, the air energy system is connected with the energy gathering module through the second heat exchanger, and the water outlet end of the first heat exchanger is connected with water drinking points of the nursing house and the fattening house by arranging a water drinking pipeline. According to the design, energy conservation, consumption reduction and accurate temperature control can be achieved.

Description

Technical Field

[0001] This utility model relates to the field of energy supply system technology, specifically an integrated energy supply system for regulating the heating and cooling environment of livestock and poultry farming and heating drinking water. Background Technology

[0002] Agricultural animal husbandry is divided into two stages: nursery and fattening. During the nursery stage, livestock are relatively vulnerable due to their newborn size and require a relatively high-temperature environment year-round. During the fattening stage, livestock are heavier and generate more heat, thus requiring cooling in summer and heating in winter. Livestock species have strict requirements for environmental temperature; suitable temperatures can improve their growth rate, health rate, and market weight. A suitable temperature environment manifests in two ways: firstly, providing appropriate temperatures for the livestock sheds; and secondly, providing livestock with drinking water at a suitable temperature.

[0003] Currently, temperature control in livestock sheds is mostly achieved through coal-fired boilers for heating in winter and evaporative cooling pads for cooling in summer. This method suffers from problems such as environmental pollution, high energy consumption, and poor temperature control. Regarding drinking water, excessively low water temperatures for livestock in winter increase disease rates and slow their growth. Utility Model Content

[0004] The purpose of this invention is to solve the problems of high energy consumption and poor temperature control in existing temperature regulation methods, and to propose an integrated energy supply system for regulating the cold and warm environment of livestock and poultry breeding and heating drinking water.

[0005] To achieve the above objectives, this utility model provides the following technical solution: an integrated energy supply system for regulating the heating and cooling environment and heating drinking water in livestock and poultry farming, comprising a nursery, a fattening shed, a solar energy system, an energy-concentrating module, and an air-source heat pump system. Both the nursery and fattening sheds are equipped with drinking water points and a room temperature regulation system. The energy-concentrating module includes a hot water tank, a first heat exchanger, a second heat exchanger, and an electric heater. The air-source heat pump system is connected to the energy-concentrating module via the second heat exchanger. The outlet of the first heat exchanger is connected to the drinking water points in both the nursery and fattening sheds via a drinking water pipe. The heat dissipation terminal of the room temperature regulation system is located inside the nursery and fattening sheds, and a heat exchange circulation pipe is connected to the heat dissipation terminal. The heat exchange circulation pipe has a heat exchange circulation inlet pipe and a heat exchange circulation outlet pipe. The air-source heat pump system is equipped with a room temperature regulating water ring heat exchanger. The outlet of the room temperature regulating water ring heat exchanger is connected to the heat exchange circulation inlet pipe, and the heat exchange circulation outlet pipe is connected to the inlet of the room temperature regulating water ring heat exchanger.

[0006] As a further embodiment of this invention: the air source heat exchanger includes an air source heat exchanger, a room temperature regulating water ring heat exchanger, a compressor, a solenoid valve, a four-way valve, and an electronic expansion valve. The air source heat exchanger, the four-way valve, the room temperature regulating water ring heat exchanger, the electronic expansion valve, and the solenoid valve are connected in series via pipelines. The compressor is connected to the other two ports of the four-way valve, and the second heat exchanger is connected in parallel across the two ends of the solenoid valve. Through the configuration of the air source system, the temperature of the nursery and fattening sheds can be precisely controlled according to demand. When the room temperature regulating water ring heat exchanger needs to provide cooling to the terminal, the water pump drive loop exchanges heat with the room temperature regulating water ring heat exchanger to absorb heat. The refrigerant system, through the compressor, electronic expansion valve, and four-way valve, performs a reverse Carnot cycle, releasing heat through the second heat exchanger of the energy-concentrating module to the energy-concentrating module for storage. When the energy-concentrating module is saturated, the solenoid valve opens, and the refrigerant system switches to the air source heat exchanger to start, dissipating heat into the air. When the room temperature regulating water ring heat exchanger needs to provide heat to the terminal, the water pump III drive loop exchanges heat with the room temperature regulating water ring heat exchanger to release heat. The refrigerant system performs a reverse Carnot cycle through the compressor, electronic expansion valve, and four-way valve, and obtains heat from the energy-concentrating module through the second heat exchanger of the energy-concentrating module. When the temperature of the energy-concentrating module is too low to provide a heat source for the refrigerant system, the solenoid valve opens, and the refrigerant system switches to the air source side heat exchanger to start, absorbing heat from the air to supplement it.

[0007] As a further embodiment of this utility model: the solar energy system includes a solar collector, a water pump II, and a valve III. The inlet of the solar collector is connected to the outlet of the hot water collection tank via a pipeline. The water pump II is installed on the pipeline, and the outlet of the solar collector is connected to the inlet of the hot water collection tank. A valve III is installed on the pipeline between the outlet of the solar collector and the inlet of the hot water collection tank. Through the configuration of this solar energy system, solar energy can be used for heating and drinking water, achieving energy conservation and consumption reduction. During the day when there is sunlight, the water pump II and valve III are open, and the solar collector absorbs solar heat and collects it in the energy collection module. At night or when the temperature is too low to provide sufficient heat to the energy collection module, the water pump II and valve III are closed, and the solar collector stops working.

[0008] As a further embodiment of this utility model: the drinking water system includes a drinking water pipe, a water pump I, a valve I, and a valve II. The inlet end of the first heat exchanger is connected to the inlet pipe, and the water pump I is connected in series on the inlet pipe. A valve I is installed between the outlet of the water pump I and the inlet end of the first heat exchanger. The outlet of the water pump I and the valve I are connected to the drinking water pipe at the outlet end of the first heat exchanger via a drinking water pipe. A valve II is connected in series on the drinking water pipe. The outlet end of the first heat exchanger and the outlet end of valve II converge and connect to the drinking points in the nursery and fattening sheds. Through the setup of the drinking water system, drinking water at a suitable temperature can be provided to the nursery and fattening sheds as needed. Drinking water is delivered to the drinking points via water pump I. When the drinking water temperature is low in winter or the temperature in the energy-concentrating module is lower than that of the drinking water, valve I opens and valve II closes. The drinking water is then heated by heat exchange in the first heat exchanger of the energy-concentrating module and delivered to the drinking points. When the drinking water temperature is suitable in summer or higher than the temperature of the energy-concentrating module, valve II opens and valve I closes, allowing the drinking water to be delivered directly to the drinking water point without passing through the energy-concentrating module.

[0009] As a further embodiment of this utility model: a valve IV is connected in series on the pipeline connecting the outlet end of the room temperature regulating water ring heat exchanger to the inlet pipe of the heat exchange circulation at the end of the fattening house; a valve V and a water pump III are connected in series in sequence on the pipeline from the outlet pipe of the heat exchange circulation at the end of the fattening house to the inlet end of the room temperature regulating water ring heat exchanger. A branch pipe is provided between the valve IV and the inlet pipe of the heat exchange circulation pipeline at the end of the fattening house, branching to the inlet pipe of the heat exchange circulation pipeline at the end of the nursery house, and a valve VII is connected in series on this branch pipe; a branch pipe is provided between the valve V and the outlet pipe of the heat exchange circulation pipeline at the end of the fattening house, connecting to the outlet pipe of the heat exchange circulation pipeline at the end of the nursery house, and a valve IX is connected in series on this branch pipe. The heat exchange circulation pipeline from valve VII to the end of the nursery is branched off to the outlet of the energy-concentrating module via a branch pipe. Valve VI and water pump IV are connected in series on this branch pipe before reaching the outlet of the energy-concentrating module. Similarly, the heat exchange circulation pipeline from valve IX to the end of the nursery is branched off to the inlet of the energy-concentrating module via a branch pipe. Valve VIII is connected in series on this branch pipe. Through the connection of pipelines and valves, energy can be supplied to both the nursery and fattening sheds according to different situations. When both the nursery and fattening sheds require heating simultaneously: when the energy-concentrating module temperature is high, it is used first for heating. Water pump III, valves IV and V are closed, while water pumps IV, valves VII, VIII, and IX are opened. Water pump IV delivers heat to the end of the nursery for heating and to the end of the fattening shed for heating. When the temperature of the energy-concentrating module drops insufficient to provide direct heating, water pump IV, valves VIII and VI close, while water pump III and valves IV, V, VII, and IX open. Water pump IV then obtains heat through the air-source heat pump system, supplying heat to the nursery and fattening sheds. In this state, the air-source heat pump system obtains heat from the energy-concentrating module via the second heat exchanger. When the temperature of the energy-concentrating module continues to drop and is insufficient to serve as a heat source for the air-source heat pump system, the solenoid valve switches, the air-source heat exchanger starts, water pump IV, valves VIII and VI close, and water pump III and valves IV, V, VII, and IX open. Water pump IV then obtains heat through the air-source heat pump system, supplying heat to the nursery and fattening sheds. When the heat is insufficient, electric heating is activated to supplement the heat supply. When the nursery needs heating and the fattening house needs cooling: Valves VII and IX are closed, and water pumps III, IV, and V are opened. Water pump III obtains cooling through the room temperature regulating water ring heat exchanger and delivers the cooling to the end of the fattening house to provide cooling. At the same time, through the air source refrigerant system, heat is released into the energy-concentrating module through the reverse Carnot cycle and the second heat exchanger of the energy-concentrating module. Water pumps IV, VI, and VIII are opened, and water pump IV delivers the heat in the energy-concentrating module to the end of the nursery to provide heating.

[0010] As a further aspect of this invention: the energy-concentrating module is equipped with an electric heater. When the energy-concentrating module lacks sufficient heat, the electric heater is activated to supplement the heat. This electric heating feature prevents the energy-concentrating module from running out of heat and allows for timely activation of the electric heater to supplement the heat.

[0011] Compared with the prior art, the beneficial effects of this utility model are:

[0012] 1. By setting up the energy-concentrating module and the air source system, the two work together to achieve unified temperature control, making the entire system configuration more reasonable and the temperature control more precise.

[0013] 2. By working together with solar energy systems, energy-concentrating modules, and air source heat pump systems, it is possible to integrate heating and cooling of the environment with drinking water heating, thereby achieving energy conservation and consumption reduction. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of this utility model;

[0015] In the diagram: 101, drinking water pipe; 102, water pump I; 103, valve I; 104, valve II; 201, first heat exchanger; 202, hot water tank; 203, electric heater; 204, second heat exchanger; 301, solar collector; 302, valve III; 303, water pump II; 401, air source heat exchanger; 402, electronic expansion valve; 403, compressor; 404, room temperature regulating water ring heat exchanger; 405, four-way valve; 406, solenoid valve; 501, water pump III; 502, valve IV; 503, valve V; 504, water pump IV; 505, valve VI; 506, valve VII; 507, valve VIII; 508, valve IX; 509, end of fattening shed; 5010, end of nursery shed. Detailed Implementation

[0016] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0017] Please see Figure 1 As shown, this utility model provides the following technical solution:

[0018] An integrated energy supply system for regulating the heating and cooling environment and heating drinking water in livestock and poultry farming includes a nursery, a fattening shed, a solar energy system, a concentrated energy module, and an air source heat pump system. Both the nursery and fattening sheds are equipped with drinking water points and a room temperature control system. The concentrated energy module includes a concentrated water tank 202, a first heat exchanger 201, a second heat exchanger 204, and an electric heater 203. The air source heat pump system is connected to the concentrated energy module via the second heat exchanger 204. The outlet of the first heat exchanger 201 is connected to the drinking water points in both the nursery and fattening sheds via a drinking water pipe 101. The heat dissipation terminals of the room temperature control system are located inside the nursery and fattening sheds, and are connected to heat exchange circulation pipes. These circulation pipes include a heat exchange circulation inlet pipe and a heat exchange circulation outlet pipe. The air source system is equipped with a room temperature regulating water ring heat exchanger 404. The liquid outlet of the room temperature regulating water ring heat exchanger 404 is connected to the heat exchange circulation inlet pipe, and the heat exchange circulation outlet pipe is connected to the liquid inlet of the room temperature regulating water ring heat exchanger 404.

[0019] The air source heat exchange system includes an air source heat exchanger 401, a room temperature regulating water ring heat exchanger 404, a compressor 403, a solenoid valve 406, a four-way valve 405, and an electronic expansion valve 402. The air source heat exchanger 401, four-way valve 405, room temperature regulating water ring heat exchanger 404, electronic expansion valve 402, and solenoid valve 406 are connected in series via pipelines. The compressor 403 is connected to the other two ports of the four-way valve 405. The second heat exchanger 204 is connected in parallel across the two ends of the solenoid valve 406. By configuring the air source heat exchange system, the temperature of the nursery and fattening sheds can be precisely controlled according to demand. When the room temperature regulating water ring heat exchanger 404 needs to provide cooling to the terminal, the water pump drive loop exchanges heat with the room temperature regulating water ring heat exchanger 404 to absorb heat. The refrigerant system performs a reverse Carnot cycle through the compressor 403, electronic expansion valve 402, and four-way valve 405, releasing the heat to the energy-concentrating module storage through the second heat exchanger 204. When the energy-concentrating module storage is saturated, the solenoid valve 406 opens, and the refrigerant system switches to the air source side heat exchanger 401 to start, dissipating the heat into the air. When the room temperature regulating water ring heat exchanger 404 needs to provide heat to the terminal, the water pump Ⅲ501 drives the loop to exchange heat with the room temperature regulating water ring heat exchanger 404 to release heat. The refrigerant system performs a reverse Carnot cycle through the compressor 403, electronic expansion valve 402, and four-way valve 405, and obtains heat from the energy-concentrating module through the second heat exchanger 204. When the temperature of the energy-concentrating module is too low to provide a heat source for the refrigerant system, the solenoid valve 406 opens, and the refrigerant system switches to the air source side heat exchanger 401 to start, absorbing heat from the air to supplement it.

[0020] The solar energy system includes a solar collector 301, a water pump II 303, and a valve III 302. The inlet of the solar collector 301 is connected to the outlet of the hot water collection tank 202 via a pipeline. The water pump II 303 is installed on this pipeline. The outlet of the solar collector 301 is connected to the inlet of the hot water collection tank 202. A valve III 302 is installed on the pipeline between the outlet of the solar collector 301 and the inlet of the hot water collection tank 202. This solar energy system allows the system to provide heating, cooling, and drinking water using solar energy, achieving energy conservation and consumption reduction. During the day when there is sunlight, the water pump II 303 and valve III 302 are open, and the solar collector 301 absorbs solar heat and collects it in the energy collection module. At night or when the temperature is too low to provide sufficient heat to the energy collection module, the water pump II 303 and valve III 302 are closed, and the solar collector 301 stops working.

[0021] The drinking water system includes a drinking water pipe 101, a water pump I 102, a valve I 103, and a valve II 104. The inlet end of the first heat exchanger 201 is connected to the inlet pipe, and the water pump I 102 is connected in series on the inlet pipe. A valve I 103 is installed between the outlet of the water pump I 102 and the inlet end of the first heat exchanger 201. The outlet of the water pump I 102 and the valve I 103 are connected to the drinking water pipe 101 at the outlet end of the first heat exchanger 201 via the drinking water pipe 101. A valve II 104 is connected in series on the drinking water pipe 101. The outlet ends of the first heat exchanger 201 and valve II 104 converge and connect to the drinking points in the nursery and fattening sheds. Through the setup of this drinking water system, drinking water at a suitable temperature can be provided to the nursery and fattening sheds as needed. Drinking water is delivered to the drinking water point via pump I102. In winter, when the drinking water temperature is low or the temperature in the energy-concentrating module is lower than the drinking water temperature, valve I103 opens and valve II104 closes. The drinking water is then heated by heat exchange in the first heat exchanger 201 of the energy-concentrating module before being delivered to the drinking water point. In summer, when the drinking water temperature is suitable or higher than the temperature in the energy-concentrating module, valve II104 opens and valve I103 closes, allowing the drinking water to be delivered directly to the drinking water point without passing through the energy-concentrating module.

[0022] A valve IV 502 is connected in series on the pipeline connecting the outlet of the room temperature regulating water ring heat exchanger 404 to the inlet pipe of the heat exchange circulation system at the end of the fattening shed 509. A valve V 503 and a water pump III 501 are connected in series on the pipeline from the outlet pipe of the heat exchange circulation system at the end of the fattening shed 509 to the inlet pipe of the room temperature regulating water ring heat exchanger 404. A branch pipe is provided between valve IV 502 and the inlet pipe of the heat exchange circulation system at the end of the fattening shed 509, leading to the inlet pipe of the heat exchange circulation system at the end of the nursery shed 5010. A valve VII 506 is connected in series on this branch pipe. A branch pipe is provided between valve V 503 and the outlet pipe of the heat exchange circulation system at the end of the fattening shed 509, connecting to the outlet pipe of the heat exchange circulation system at the end of the nursery shed 5010. A valve IX 508 is connected in series on this branch pipe. The heat exchange circulation pipeline from valve VII 506 to the inlet pipe of the nursery end 5010 is branched off to the outlet of the energy-concentrating module via a branch pipe. Valve VI 505 and water pump IV 504 are connected in series on this branch pipe before reaching the outlet of the energy-concentrating module. Similarly, the heat exchange circulation pipeline from valve IX 508 to the outlet pipe of the nursery end 5010 is branched off to the inlet of the energy-concentrating module via a branch pipe. Valve VIII 507 is connected in series on this branch pipe. Through the connection of pipelines and valves, energy can be supplied to the nursery and fattening sheds according to different needs. When both the nursery and fattening sheds require heating: When the temperature of the energy-concentrating module is high, the energy-concentrating module is used for heating first. Water pump Ⅲ501, valve Ⅳ502 and valve Ⅴ503 are closed, while water pump Ⅳ504, valve Ⅶ506, valve Ⅷ507 and valve Ⅸ508 are opened. Water pump Ⅳ504 delivers heat to the nursery end 5010 for heating the nursery and to the fattening shed end 509 for heating the fattening shed. When the temperature of the energy-concentrating module drops to a level insufficient for direct heating, water pump IV 504, valve VIII 507, and valve VI 505 are closed, while water pump III 501, valves IV 502, V 503, VII 506, and IX 508 are opened. Water pump IV 504 obtains heat through the air-source refrigerant system and delivers it to the nursery end 5010 for heating the nursery and to the fattening end 509 for heating the fattening house. In this state, the air-source system obtains heat from the energy-concentrating module through the second heat exchanger 204 of the energy-concentrating module. When the temperature of the energy-concentrating module continues to decrease and is insufficient to serve as a heat source for the air-source refrigerant system, the solenoid valve 406 switches, the air source heat exchanger 401 starts, water pump IV 504, valve VIII 507 and valve VI 505 close, and water pump III 501 and valves IV 502, V 503, VII 506 and IX 508 open. Water pump IV 504 obtains heat through the air-source refrigerant system and delivers it to the nursery end 5010 for heating the nursery and the fattening end 509 for heating the fattening house. When the heat is insufficient, the electric heater 203 starts to supplement the heat.When the nursery needs heating and the fattening house needs cooling: valves VII 506 and IX 508 are closed, and water pumps III 501, IV 502, and V 503 are opened. Water pump III 501 obtains cooling through the room temperature regulating water ring heat exchanger 404 and delivers the cooling to the fattening house terminal 509 to provide cooling for the fattening house. At the same time, through the air source refrigerant system, heat is released into the energy-concentrating module through the reverse Carnot cycle and the second heat exchanger 204 of the energy-concentrating module. Water pumps IV 504, VI ​​505, and VIII 507 are opened, and water pump IV 504 delivers the heat in the energy-concentrating module to the nursery terminal 5010 to provide heating for the nursery.

[0023] The energy-concentrating module is equipped with an electric heater 203. When the energy-concentrating module's heat is insufficient, the electric heater 203 is activated to supplement the heat. By setting up the electric heater 203, the insufficient heat of the energy-concentrating module can be prevented, and the electric heater 203 can be activated in a timely manner to supplement the heat.

[0024] When this invention is used to provide drinking water for nursery and fattening pens, drinking water is delivered to the drinking point via pump I102. In winter, when the drinking water temperature is low or the temperature in the energy-concentrating module is lower than the drinking water temperature, valve I103 opens and valve II104 closes. The drinking water is then heated by heat exchange in the first heat exchanger 201 of the energy-concentrating module before being delivered to the drinking point. In summer, when the drinking water temperature is suitable or higher than the temperature in the energy-concentrating module, valve II104 opens and valve I103 closes, allowing the drinking water to be delivered directly to the drinking point without passing through the energy-concentrating module.

[0025] When using this utility model to supply energy to the nursery and fattening sheds, and when both nursery and fattening sheds need heating at the same time: when the energy-concentrating module temperature is high, the energy-concentrating module is used first for heating, water pump Ⅲ501, valve Ⅳ502 and valve Ⅴ503 are closed, water pump Ⅳ504, valve Ⅶ506, valve Ⅷ507 and valve Ⅸ508 are opened, water pump Ⅳ504 delivers heat to the nursery end 5010 for heating the nursery and to the fattening shed end 509 for heating the fattening shed. When the temperature of the energy-concentrating module drops to a level insufficient for direct heating, water pump IV 504, valve VIII 507, and valve VI 505 are closed, while water pump III 501, valves IV 502, V 503, VII 506, and IX 508 are opened. Water pump IV 504 obtains heat through the air-source refrigerant system and delivers it to the nursery end 5010 for heating the nursery and to the fattening end 509 for heating the fattening house. In this state, the air-source system obtains heat from the energy-concentrating module through the second heat exchanger 204 of the energy-concentrating module. When the temperature of the energy-concentrating module continues to decrease and is insufficient to serve as a heat source for the air-source refrigerant system, the solenoid valve 406 switches, the air source heat exchanger 401 starts, water pump IV 504, valve VIII 507 and valve VI 505 close, and water pump III 501 and valves IV 502, V 503, VII 506 and IX 508 open. Water pump IV 504 obtains heat through the air-source refrigerant system and delivers it to the nursery end 5010 for heating the nursery and the fattening end 509 for heating the fattening house. When the heat is insufficient, the electric heater 203 starts to supplement the heat. When the nursery needs heating and the fattening house needs cooling: valves VII 506 and IX 508 are closed, and water pumps III 501, IV 502, and V 503 are opened. Water pump III 501 obtains cooling through the room temperature regulating water ring heat exchanger 404 and delivers the cooling to the fattening house terminal 509 to provide cooling for the fattening house. At the same time, through the air source refrigerant system, heat is released into the energy-concentrating module through the reverse Carnot cycle and the second heat exchanger 204 of the energy-concentrating module. Water pumps IV 504, VI ​​505, and VIII 507 are opened, and water pump IV 504 delivers the heat in the energy-concentrating module to the nursery terminal 5010 to provide heating for the nursery.

[0026] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A livestock and poultry breeding cold and warm environment regulation and drinking water heating integrated energy supply system, comprising a nursery, a fattening house, a solar energy system, an energy concentration module, an air energy system and a drinking water system, the nursery and the fattening house are provided with a drinking water point and a room temperature regulation system, characterized in that: The energy gathering module comprises a heat gathering water tank (202), a first heat exchanger (201), a second heat exchanger (204) and an electric heater (203), the air energy system is connected with the energy gathering module through the second heat exchanger (204), the water outlet end of the first heat exchanger (201) is connected with the drinking water points of the nursery house and the fattening house through the setting of the drinking water pipeline (101); the heat dissipation end of the room temperature adjusting system is arranged in the nursery house and the fattening house, the heat dissipation end is connected with the heat exchange circulation pipeline, the heat exchange circulation pipeline is provided with a heat exchange circulation inlet pipe and a heat exchange circulation outlet pipe; the air energy system is provided with a room temperature adjusting water ring heat exchanger (404), the liquid outlet end of the room temperature adjusting water ring heat exchanger (404) is connected with the heat exchange circulation inlet pipe, and the heat exchange circulation outlet pipe is connected with the liquid inlet end of the room temperature adjusting water ring heat exchanger (404).

2. The integrated energy supply system for regulating cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 1, characterized in that: The air energy system comprises an air source side heat exchanger (401), a room temperature adjusting water ring heat exchanger (404), a compressor (403), a solenoid valve (406), a four-way valve (405) and an electronic expansion valve (402), the air source side heat exchanger (401), the four-way valve (405), the room temperature adjusting water ring heat exchanger (404), the electronic expansion valve (402) and the solenoid valve (406) are sequentially connected through pipelines in series, the compressor (403) is connected with the other two interfaces of the four-way valve (405), and the second heat exchanger (204) is connected in parallel at both ends of the solenoid valve (406).

3. The integrated energy supply system for regulating cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 1, characterized in that: The solar energy system comprises a solar energy collector (301), a water pump II (303) and a valve III (302), the water inlet end of the solar energy collector is connected with the water outlet end of the heat gathering water tank (202) through a pipeline, the water pump II (303) is arranged on the pipeline, the water outlet end of the solar energy collector is connected with the water inlet end of the heat gathering water tank (202), and the valve III (302) is arranged on the pipeline between the water outlet end of the solar energy collector and the water inlet end of the heat gathering water tank (202).

4. The integrated energy supply system for regulating cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 1, characterized in that: The drinking water system comprises a drinking water pipeline (101), a water pump I (102), a valve I (103) and a valve II (104), the water inlet end of the first heat exchanger (201) is connected with a water inlet pipeline, the water pump I (102) is connected in series on the water inlet pipeline, the valve I (103) is arranged between the outlet of the water pump I (102) and the water inlet end of the first heat exchanger (201), the outlet of the water pump I (102) and the valve I (103) are connected with the drinking water pipeline (101) of the water outlet end of the first heat exchanger (201) through the setting of the drinking water pipeline (101), the valve II (104) is connected in series on the drinking water pipeline (101), and the water outlet ends of the first heat exchanger (201) and the valve II (104) are connected to the drinking water points of the nursery house and the fattening house.

5. The integrated energy supply system for regulating cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 1, characterized in that: Valve IV (502) is connected in series on the pipeline between the liquid outlet end of the room temperature regulating water ring heat exchanger (404) and the heat exchange cycle liquid inlet pipe of the end of the fattening house (509), and valve V (503) and water pump III (501) are connected in series on the pipeline between the heat exchange cycle liquid outlet pipe of the end of the fattening house (509) and the liquid inlet end of the room temperature regulating water ring heat exchanger (404).

6. The integrated energy supply system for regulating the cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 5, characterized in that: Valve IV (502) is branched to the heat exchange cycle liquid inlet pipe of the end of the nursery house (5010) through the branch pipeline between the heat exchange cycle pipeline liquid inlet pipe of the end of the fattening house (509), and valve VII (506) is connected in series on the branch pipeline; valve V (503) is connected to the heat exchange cycle liquid outlet pipe of the end of the fattening house (509) through the branch pipeline between the heat exchange cycle pipeline liquid outlet pipe of the end of the fattening house (509), and valve IX (508) is connected in series on the branch pipeline.

7. The integrated energy supply system for regulating the cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 6, characterized in that: Valve VII (506) is branched to the liquid outlet end of the energy concentration module through the branch pipeline between the heat exchange cycle liquid inlet pipe of the end of the nursery house (5010), and valve VI (505) and water pump IV (504) are connected in series on the branch pipeline before reaching the liquid outlet end of the energy concentration module; valve IX (508) is branched to the liquid inlet end of the energy concentration module through the branch pipeline between the heat exchange cycle liquid outlet pipe of the end of the nursery house (5010), and valve VIII (507) is connected in series on the branch pipeline.

8. The integrated energy supply system for regulating cold and warm environment of livestock and poultry breeding and heating drinking water according to claim 1, characterized in that: An electric heating (203) is arranged on the energy concentration module, and when the heat of the energy concentration module is insufficient, the electric heating (203) is started to supplement heat.

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