Swimming pool air conditioning system

Abstract

The present application relates to a swimming pool air conditioning system, which is connected to a compressor through a pipe at one end of a heat exchange system, and is connected to a liquid storage tank through a pipe at the other end of the heat exchange system. A refrigerant recovery control system is provided in the heat exchange system so that when the refrigerant filling amount of the entire air conditioning system is larger than that of a conventional air conditioning system, it can effectively save energy and reduce costs, and at the same time, refrigerant medium can be recovered to realize other functions of independently producing hot water and air-cooled heat pump heating.

Description

Technical Field

[0001] The present application relates to the technical field of air conditioning, and in particular to a swimming pool air conditioning system. Background Art

[0002] As the quality of life continues to improve, swimming as a healthy aerobic exercise is becoming increasingly popular. People not only require the cleanliness and health of swimming pool water, but also have higher requirements for the constant temperature of pool water and the air quality of swimming pools. How to effectively use the condensation heat of swimming pool air conditioners to ensure constant air humidity, stable air temperature, stable pool water supply temperature, and save operating costs and reduce energy consumption has become a focus of attention.

[0003] The heat exchange system components of swimming pool air conditioners currently on the market are more than those of conventional air conditioners, including indoor condensers, water-side condensers (for hot water for swimming pools), liquid storage tanks, complex piping, etc., all of which store a portion of the refrigerant. At the same time, during the operation or shutdown of the air conditioner, the refrigerant will migrate and the internal high and low leakage of the one-way valve and the solenoid valve will cause the entire heat pump system to use more than twice the refrigerant tank filling volume of a conventional air conditioning heat exchange system, resulting in increased energy consumption and costs for the air conditioner. Utility Model Content

[0004] Based on this, it is necessary to provide a swimming pool air conditioning system to address the problem that during the operation or shutdown of traditional swimming pool air conditioners, the refrigerant will migrate and the internal high and low leakage of the one-way valve and the solenoid valve will use more than twice the refrigerant tank filling amount of the entire heat pump system than the conventional air conditioning heat exchange system, resulting in increased energy consumption and cost of air conditioning.

[0005] This application provides a swimming pool air conditioning system, including:

[0006] compressor;

[0007] A liquid reservoir, the pipeline of which is connected to the compressor;

[0008] A heat exchange system is provided between the compressor and the liquid reservoir, one end of the heat exchange system is connected to the compressor, and the other end of the heat exchange system is connected to the liquid reservoir, for cooling, heating and dehumidifying the air or heating the liquid;

[0009] A refrigerant recovery control system is arranged between the compressor and the heat exchange system. One end of the refrigerant recovery control system is connected to the compressor, and the other end of the refrigerant recovery control system is connected to the heat exchange system for recovering the refrigerant.

[0010] The present application relates to a swimming pool air conditioning system, which is connected to a compressor through a pipe at one end of a heat exchange system, and is connected to a liquid storage tank through a pipe at the other end of the heat exchange system. A refrigerant recovery control system is provided in the heat exchange system so that when the refrigerant filling amount of the entire air conditioning system is larger than that of a conventional air conditioning system, it can effectively save energy and reduce costs, and at the same time, refrigerant medium can be recovered to realize other functions of independently producing hot water and air-cooled heat pump heating. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 A schematic diagram of the operation flow of a swimming pool air conditioning system provided in one embodiment of the present application.

[0012] Figure 2 A schematic diagram of the connection relationship between the heat exchange system, the compressor and the liquid storage device in the swimming pool air conditioning system provided in one embodiment of the present application.

[0013] Figure 3 A schematic diagram of the connection relationship between the refrigerant recovery control system and the compressor and heat exchange system in a swimming pool air conditioning system provided in one embodiment of the present application.

[0014] Figure 4 A schematic diagram of the connection relationship between the refrigerant recovery unit and the heat exchange system in a swimming pool air conditioning system provided in one embodiment of the present application.

[0015] Reference numerals:

[0016] 11. compressor; 12. liquid storage tank; 13. heat exchange system; 131. indoor evaporator;

[0017] 132, condensation assembly; 132a, first condenser; 132b, second condenser;

[0018] 132c, third condenser; 14, refrigerant recovery control system; 141, refrigerant recovery unit;

[0019] 141a, first refrigerant recovery link; 141b, second refrigerant recovery link;

[0020] 141c, third refrigerant recovery link; 141d, first solenoid valve; 141e, second solenoid valve;

[0021] 141f, third solenoid valve; 141g, first one-way valve; 141h, second one-way valve;

[0022] 141i, third one-way valve; 141j, first connection point; 141k, second connection point;

[0023] 1411, third connection point; 141m, fourth connection point; 141n, fifth connection point;

[0024] 141o, sixth connection point; 15, first hot gas three-way reversing valve; 16, second hot gas three-way reversing valve;

[0025] 17. Gas-liquid separator; 18. Four-way valve; 19. Fourth one-way valve; 20. Fifth one-way valve;

[0026] 21. Sixth one-way valve; 22. High-pressure control valve; 23. First throttle valve; 24. Second throttle valve; 25. Liquid three-way reversing valve; 26. Fourth solenoid valve. DETAILED DESCRIPTION

[0027] In order to make the purpose, technical solution and advantages of the present application more clearly understood, the present application is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0028] like Figure 1 As shown, in one embodiment of the present application, the swimming pool air conditioning system includes a compressor 11, a liquid storage tank 12, a heat exchange system 13 and a refrigerant recovery control system 14.

[0029] The liquid storage tank 12 is connected to the compressor 11 through a pipeline.

[0030] The heat exchange system 13 is disposed between the compressor 11 and the liquid reservoir 12. One end of the heat exchange system 13 is connected to the compressor 11. The other end of the heat exchange system 13 is connected to the liquid reservoir 12. The heat exchange system 13 is used to cool, heat and dehumidify air or heat liquid.

[0031] The refrigerant recovery control system 14 is disposed between the compressor 11 and the heat exchange system 13. One end of the refrigerant recovery control system 14 is connected to the compressor 11 through a pipeline, and the other end of the refrigerant recovery control system 14 is connected to the heat exchange system 13 through a pipeline for recovering refrigerant.

[0032] Specifically, the compressor 11 and the liquid reservoir 12 are connected via a heat exchange system 13, one end of the heat exchange system 13 is connected to the compressor 11, and the other end of the heat exchange system 13 is connected to the liquid reservoir 12. A refrigerant recovery control system 14 is provided at the connection between the heat exchange system 13 and the compressor 11. The refrigerant recovery control system 14 is used to recover the refrigerant medium, thereby improving the utilization rate of the refrigerant medium.

[0033] In this embodiment, one end of the heat exchange system 13 is connected to the compressor 11, and the other end of the heat exchange system 13 is connected to the liquid storage tank 12, and a refrigerant recovery control system 14 is provided in the heat exchange system 13, so that when the refrigerant filling amount of the entire air-conditioning system is larger than that of conventional air-conditioning, it can effectively save energy and reduce costs, and at the same time recover the refrigerant medium to realize other functions of independently producing hot water and air-cooled heat pump heating.

[0034] In one embodiment of the present application, the heat exchange system 13 includes an indoor evaporator 131 and a condensing assembly 132 .

[0035] The indoor evaporator 131 is disposed between the compressor 11 and the liquid accumulator 12. One end of the indoor evaporator 131 is connected to the compressor 11 through a pipeline. The other end of the indoor evaporator 131 is connected to the liquid accumulator 12 through a pipeline. The indoor evaporator 131 is used for heat conversion between media.

[0036] The condensation component 132 is disposed between the compressor 11 and the liquid storage tank 12. One end of the condensation component 132 is connected to the compressor 11 through a pipeline. The other end of the condensation component 132 is connected to the liquid storage tank 12 through a pipeline. The condensation component 132 is used to convert gas or steam into liquid.

[0037] In this embodiment, one end of the indoor evaporator 131 is connected to the compressor 11, and the other end of the indoor evaporator 131 is connected to the liquid reservoir 12. The indoor evaporator 131 is used for heat conversion between media. The condensation component 132 is arranged between the compressor 11 and the liquid reservoir 12. One end of the condensation component 132 is connected to the compressor 11, and the other end of the condensation component 132 is connected to the liquid reservoir 12. The condensation component 132 is used to convert gas or steam into liquid.

[0038] In one embodiment of the present application, a first hot gas three-way reversing valve 15 and a second hot gas three-way reversing valve 16 are also included.

[0039] One end of the first hot gas three-way reversing valve 15 is connected to the liquid reservoir 12 through a pipeline.

[0040] The other end of the first hot gas three-way reversing valve 15 is connected to the second hot gas three-way reversing valve 16 through a pipeline.

[0041] In one embodiment of the present application, the condensation assembly 132 includes a first condenser 132a, a second condenser 132b and a third condenser 132c.

[0042] One end of the first condenser 132a is connected to the second hot gas three-way reversing valve 16 through a pipeline. The other end of the first condenser 132a is connected to the liquid storage tank 12 through a pipeline.

[0043] One end of the second condenser 132 b is connected to the second hot gas three-way reversing valve 16 , and the other end of the second condenser 132 b is connected to the liquid storage tank 12 .

[0044] One end of the pipeline of the third condenser 132 c is connected to the first hot gas three-way reversing valve 15 . The other end of the pipeline of the third condenser 132 c is connected to the liquid storage tank 12 .

[0045] In this embodiment, one end of the pipeline of the first condenser 132a is connected to the second hot gas three-way reversing valve 16, the other end of the pipeline of the first condenser 132a is connected to the liquid reservoir 12, one end of the pipeline of the second condenser 132b is connected to the second hot gas three-way reversing valve 16, the other end of the pipeline of the second condenser 132b is connected to the liquid reservoir 12, one end of the pipeline of the third condenser 132c is connected to the first hot gas three-way reversing valve 15, and the other end of the pipeline of the third condenser 132c is connected to the liquid reservoir 12.

[0046] In one embodiment of the present application, the refrigerant recovery control system 14 includes a refrigerant recovery unit 141, and the refrigerant recovery unit 141 includes a first refrigerant recovery link 141a, a second refrigerant recovery link 141b, a third refrigerant recovery link 141c, a first solenoid valve 141d, a second solenoid valve 141e and a third solenoid valve 141f.

[0047] One end of the first refrigerant recovery link 141a is connected to the connection link between the first hot gas three-way reversing valve 15 and the second hot gas three-way reversing valve 16 through the first connection point 141j. The other end of the first refrigerant recovery link 141a is connected to the connection link between the gas-liquid separator 17 and the indoor evaporator 131 through the second connection point 141k.

[0048] One end of the second refrigerant recovery link 141b is connected to the connection link between the first hot gas three-way reversing valve 15 and the third condenser 132c through the third connection point 1411. The other end of the second refrigerant recovery link 141b is connected to the first refrigerant recovery link 141a through the fourth connection point 141m.

[0049] One end of the third refrigerant recovery link 141c is connected to the connection link between the second hot gas three-way reversing valve 16 and the first condenser 132a through the fifth connection point 141n. The other end of the third refrigerant recovery link 141c is connected to the first refrigerant recovery link 141a through the sixth connection point 141o.

[0050] The first solenoid valve 141d is disposed on the first refrigerant recovery link 141a.

[0051] The second solenoid valve 141e is disposed on the second refrigerant recovery link 141b.

[0052] The third solenoid valve 141f is disposed on the third refrigerant recovery link 141c.

[0053] In this embodiment, the first refrigerant recovery link 141a is used to recover the refrigerant on the connecting link between the first hot gas three-way reversing valve 15 and the second hot gas three-way reversing valve 16 and the connecting link between the gas-liquid separator 17 and the indoor evaporator 131; the second refrigerant recovery link 141b is used to recover the refrigerant between the connecting link between the first hot gas three-way reversing valve 15 and the third condenser 132c and the first refrigerant recovery link 141a; the third refrigerant recovery link 141c is used to recover the refrigerant between the connecting link between the second hot gas three-way reversing valve 16 and the first condenser 132a and the first refrigerant recovery link 141a.

[0054] In an embodiment of the present application, the refrigerant recovery unit 141 further includes a first one-way valve 141g, a second one-way valve 141h, a third one-way valve 141i and a sixth connection point 141o.

[0055] The first check valve 141g is disposed on the first refrigerant recovery link 141a and between the first solenoid valve 141d and the third condenser 132c.

[0056] The second one-way valve 141h is disposed on the second refrigerant recovery link 141b and between the second solenoid valve 141e and the indoor evaporator 131 .

[0057] The third one-way valve 141i is disposed on the third refrigerant recovery link 141c and between the third solenoid valve 141f and the indoor evaporator 131 .

[0058] The sixth connection point 141 o is disposed between the first check valve 141 g and the indoor evaporator 131 .

[0059] In this embodiment, the first one-way valve 141g, the second one-way valve 141h and the third one-way valve 141i are respectively used to limit the direction of refrigerant flow in the first refrigerant recovery link 141a, the second refrigerant recovery link 141b and the third refrigerant recovery link 141c to prevent backflow.

[0060] In one embodiment of the present application, a gas-liquid separator 17 is also included.

[0061] The gas-liquid separator 17 is disposed between the indoor evaporator 131 and the compressor 11. One end of the gas-liquid separator 17 is connected to the indoor evaporator 131 through a pipeline. The other end of the gas-liquid separator 17 is connected to the compressor 11 through a pipeline.

[0062] In one embodiment of the present application, a four-way valve 18 is also included.

[0063] The four-way valve 18 is disposed between the second condenser 132b and the second hot gas three-way reversing valve 16. The first end of the four-way valve 18 is connected to the second condenser 132b. The second end of the four-way valve 18 is connected to the second hot gas three-way reversing valve 16. The third end of the four-way valve 18 is connected to the connection link between the gas-liquid separator 17 and the indoor evaporator 131.

[0064] In one embodiment of the present application, a fourth one-way valve 19 , a fifth one-way valve 20 and a sixth one-way valve 21 are also included.

[0065] The fourth one-way valve 19 is disposed between the third condenser 132c and the liquid reservoir 12. One end of the fourth one-way valve 19 is connected to the third condenser 132c. The other end of the fourth one-way valve 19 is connected to the connection link between the liquid reservoir 12 and the first condenser 132a.

[0066] The fifth one-way valve 20 is disposed between the second condenser 132b and the liquid reservoir 12. One end of the fifth one-way valve 20 is connected to the second condenser 132b through a pipeline. The other end of the fifth one-way valve 20 is connected to the liquid reservoir 12 through a pipeline.

[0067] The sixth one-way valve 21 is disposed between the first condenser 132a and the liquid reservoir 12. One end of the sixth one-way valve 21 is connected to the first condenser 132a. The other end of the sixth one-way valve 21 is connected to the connection link between the liquid reservoir 12 and the first condenser 132a.

[0068] In this embodiment, the fourth one-way valve 19 is arranged between the third condenser 132c and the liquid reservoir 12, and one end of the fourth one-way valve 19 is connected to the third condenser 132c, and the other end of the fourth one-way valve 19 is connected to the connection link between the liquid reservoir 12 and the first condenser 132a. The fifth one-way valve 20 is arranged between the second condenser 132b and the liquid reservoir 12, one end of the fifth one-way valve 20 is connected to the second condenser 132b, and the other end of the fifth one-way valve 20 is connected to the liquid reservoir 12. The sixth one-way valve 21 is arranged between the first condenser 132a and the liquid reservoir 12, one end of the sixth one-way valve 21 is connected to the first condenser 132a, and the other end of the sixth one-way valve 21 is connected to the connection link between the liquid reservoir 12 and the first condenser 132a.

[0069] In one embodiment of the present application, it also includes a high-pressure control valve 22 , a first throttle valve 23 , a second throttle valve 24 , a liquid three-way reversing valve 25 and a fourth solenoid valve 26 .

[0070] The high-pressure control valve 22 is disposed on a connection link between the fourth one-way valve 19 and the liquid reservoir 12 .

[0071] The first throttle valve 23 is connected in parallel to both ends of the fifth one-way valve 20 .

[0072] The second throttle valve 24 is disposed on a connection link between the indoor evaporator 131 and the liquid storage tank 12 .

[0073] The liquid three-way reversing valve 25 is disposed on the connection link between the second throttle valve 24 and the liquid reservoir 12. One end of the liquid three-way reversing valve 25 is connected to the second throttle valve 24 through a pipeline. The other end of the liquid three-way reversing valve 25 is connected to the liquid reservoir 12 through a pipeline.

[0074] One end of the fourth solenoid valve 26 is connected to the fifth one-way valve 20. The other end of the fourth solenoid valve 26 is connected to the connection link between the high-pressure control valve 22 and the sixth one-way valve 21. The liquid three-way reversing valve 25 is also connected to the connection link between the fifth one-way valve 20 and the fourth solenoid valve 26 through a pipeline.

[0075] In this embodiment, the high-pressure control valve 22 is arranged on the connection link between the fourth one-way valve 19 and the liquid reservoir 12; the first throttle valve 23 is connected in parallel to both ends of the fifth one-way valve 20; the second throttle valve 24 is arranged on the connection link between the indoor evaporator 131 and the liquid reservoir 12, one end of the second throttle valve 24 is connected to the indoor evaporator 131, and the other end of the second throttle valve 24 is connected to the liquid reservoir 12; the liquid three-way reversing valve 25 is arranged on the connection link between the second throttle valve 24 and the liquid reservoir 12, and the liquid three-way reversing valve 25 is arranged on the connection link between the second throttle valve 24 and the liquid reservoir 12. One end of the pipeline of the valve 25 is connected to the second throttle valve 24, and the other end of the pipeline of the liquid three-way reversing valve 25 is connected to the liquid reservoir 12; the fourth solenoid valve 26 is arranged between the fifth one-way valve 20 and the high-pressure control valve 22, one end of the pipeline of the fourth solenoid valve 26 is connected to the fifth one-way valve 20, and the other end of the pipeline of the fourth solenoid valve 26 is connected to the connecting link between the high-pressure control valve 22 and the sixth one-way valve 21, and the liquid three-way reversing valve 25 is also connected to the connecting link between the fifth one-way valve 20 and the fourth solenoid valve 26 by a pipeline.

[0076] Air cooling and dehumidification working process: the high-temperature and high-pressure gas discharged from the compressor 11 passes through the first hot gas three-way reversing valve 15, the second hot gas three-way reversing valve 16, and the four-way valve 18 to enter the second condenser 132b to release heat and become a high-pressure and low-temperature liquid, and flows through the fifth one-way valve 20, the fourth solenoid valve 26, and the liquid reservoir 12. The high-pressure and low-temperature liquid coming out of the liquid reservoir 12 flows through the liquid three-way reversing valve 25 and then to the second throttle valve 24 to throttle and become a low-temperature and low-pressure vapor-liquid mixture. The low-temperature and low-pressure vapor-liquid mixture absorbs heat in the air in the indoor evaporator 131 and evaporates to become a low-pressure and low-temperature gas, and then passes through the gas-liquid separator 17 and returns to the compressor 11 for circulating compression.

[0077] Air heating and dehumidification working process: the high-temperature and high-pressure gas discharged from the compressor 11 passes through the first hot gas three-way reversing valve 15 and enters the third condenser 132c to release heat to the air and become a high-pressure and low-temperature liquid. The fourth one-way valve 19 and the liquid reservoir 12, the high-pressure and low-temperature liquid coming out of the liquid reservoir 12 flows through the liquid three-way reversing valve 25 and then to the second throttle valve 24 to be throttled to become a low-temperature and low-pressure vapor-liquid mixture. The low-temperature and low-pressure vapor-liquid mixture absorbs heat from the air in the indoor evaporator 131 and evaporates to become a low-pressure and low-temperature gas, and then passes through the gas-liquid separator 17 and returns to the compressor 11 for circulating compression.

[0078] Air cooling and dehumidification and pool water heating workflow: the high-temperature and high-pressure gas discharged from the compressor 11 passes through the first hot gas three-way reversing valve 15 and the second hot gas three-way reversing valve 16 to enter the first condenser 132a to release heat to the pool water and become a high-pressure and low-temperature liquid, the sixth one-way valve 21 and the liquid reservoir 12. The high-pressure and low-temperature liquid coming out of the liquid reservoir 12 flows through the liquid three-way reversing valve 25 and then to the second throttle valve 24 to be throttled to become a low-temperature and low-pressure vapor-liquid mixture. The low-temperature and low-pressure vapor-liquid mixture absorbs heat from the air in the indoor evaporator 131 and evaporates to become a low-pressure and low-temperature gas, and then passes through the gas-liquid separator 17 back to the compressor 11 for circulating compression.

[0079] Air-cooled heat pump heating working process: the high-temperature and high-pressure gas discharged from the compressor 11 passes through the first hot gas three-way reversing valve 15, enters the third condenser 132c to release heat and become high-pressure and low-temperature liquid, the fourth one-way valve 19, and the liquid reservoir 12. The high-pressure and low-temperature liquid coming out of the liquid reservoir 12 flows through the liquid three-way reversing valve 25 and then to the first throttle valve 23 for throttling to become a low-temperature and low-pressure vapor-liquid mixture. The low-temperature and low-pressure vapor-liquid mixture absorbs heat from the air in the second condenser 132b and evaporates to become a low-pressure and low-temperature gas. The low-pressure gas flows to the four-way valve 18 and then passes through the gas-liquid separator 17 back to the compressor 11 for cyclic compression.

[0080] Working process of making hot water separately: the high-temperature and high-pressure gas discharged from the compressor 11 passes through the first hot gas three-way reversing valve 15 and the second hot gas three-way reversing valve 16 to enter the first condenser 132a to release heat to the pool water and become a high-pressure and low-temperature liquid, the sixth one-way valve 21 and the liquid reservoir 12, the high-pressure and low-temperature liquid coming out of the liquid reservoir 12 flows through the liquid three-way reversing valve 25 and then to the first throttle valve 23 to throttle and become a low-temperature and low-pressure vapor-liquid mixture, the low-temperature and low-pressure vapor-liquid mixture absorbs the heat in the air in the second condenser 132b and evaporates to become a low-pressure and low-temperature gas, the low-pressure gas flows to the four-way valve 18 and then passes through the gas-liquid separator 17 back to the compressor 11 for circulating compression

[0081] The working principle of refrigerant recovery is:

[0082] The first solenoid valve 141d for refrigerant recovery of the third condenser 132c is connected to the front of the inlet of the gas-liquid separator 17, the third solenoid valve 141f for refrigerant recovery of the first condenser 132a (for hot water supply) is connected to the front of the inlet of the gas-liquid separator 17, and the outlet pipe of the second solenoid valve 141e for refrigerant recovery of the second condenser 132b is arranged in front of the inlet of the gas-liquid separator 17, and the outlet pipe is arranged between the first hot gas three-way valve and the second hot gas three-way valve. Within the set time after the mode is started, the refrigerant recovery circuit solenoid valve at the refrigerant inlet end of the non-working condenser is powered on and opened, so that the refrigerant is recovered to the working refrigeration compression cycle system; the refrigerant recovery solenoid valves are all normally closed valves.

[0083] The technical features of the above-described embodiments may be arbitrarily combined, and the execution order of the method steps is not limited. To make the description concise, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0084] The above-described embodiments only express several implementation methods of the present application, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the scope of the present application. It should be pointed out that, for a person of ordinary skill in the art, several variations and improvements can be made without departing from the concept of the present application, and these all belong to the protection scope of the present application. Therefore, the protection scope of the present application shall be subject to the attached claims.

Claims

1. A swimming pool air conditioning system, characterized in that: The swimming pool air conditioning system comprises: compressor; A liquid reservoir, the pipeline of which is connected to the compressor; A heat exchange system is provided between the compressor and the liquid reservoir, one end of the heat exchange system is connected to the compressor, and the other end of the heat exchange system is connected to the liquid reservoir, for cooling, heating and dehumidifying the air or heating the liquid; A refrigerant recovery control system is arranged between the compressor and the heat exchange system. One end of the refrigerant recovery control system is connected to the compressor, and the other end of the refrigerant recovery control system is connected to the heat exchange system for recovering the refrigerant.

2. The swimming pool air conditioning system according to claim 1, characterized in that: The heat exchange system comprises: An indoor evaporator is arranged between the compressor and the liquid reservoir, one end of the indoor evaporator is connected to the compressor through a pipeline, and the other end of the indoor evaporator is connected to the liquid reservoir through a pipeline, for heat conversion between media; A condensing component is arranged between the compressor and the liquid reservoir, one end of the pipeline of the condensing component is connected to the compressor, and the other end of the pipeline of the condensing component is connected to the liquid reservoir, and is used to convert gas or steam into liquid.

3. The swimming pool air conditioning system according to claim 2, characterized in that: Also includes: a first hot gas three-way reversing valve, wherein one end of the first hot gas three-way reversing valve is connected to the liquid reservoir through a pipeline; A second hot gas three-way reversing valve, wherein the other end of the first hot gas three-way reversing valve is connected to the second hot gas three-way reversing valve.

4. The swimming pool air conditioning system according to claim 3, characterized in that: The condensing assembly comprises: A first condenser, wherein one end of the first condenser is connected to the second hot gas three-way reversing valve, and the other end of the first condenser is connected to the liquid reservoir; A second condenser, wherein one end of the pipeline of the second condenser is connected to the second hot gas three-way reversing valve, and the other end of the pipeline of the second condenser is connected to the liquid reservoir; A third condenser, wherein one end of the pipeline of the third condenser is connected to the first hot gas three-way reversing valve, and the other end of the pipeline of the third condenser is connected to the liquid storage tank.

5. The swimming pool air conditioning system according to claim 4, characterized in that: Also includes: A gas-liquid separator is arranged between the indoor evaporator and the compressor, one end of the pipeline of the gas-liquid separator is connected to the indoor evaporator, and the other end of the pipeline of the gas-liquid separator is connected to the compressor.

6. The swimming pool air conditioning system according to claim 5, characterized in that: The refrigerant recovery control system includes a refrigerant recovery unit, and the refrigerant recovery unit includes: A first refrigerant recovery link, one end of which is connected to the connection link between the first hot gas three-way reversing valve and the second hot gas three-way reversing valve through a first connection point, and the other end of which is connected to the connection link between the gas-liquid separator and the indoor evaporator through a second connection point; a second refrigerant recovery link, one end of which is connected to the connection link between the first hot gas three-way reversing valve and the third condenser through a third connection point, and the other end of which is connected to the first refrigerant recovery link through a fourth connection point; a third refrigerant recovery link, one end of which is connected to the connection link between the second hot gas three-way reversing valve and the first condenser through a fifth connection point, and the other end of which is connected to the first refrigerant recovery link through a sixth connection point; A first solenoid valve, disposed on the first refrigerant recovery link; A second solenoid valve is provided on the second refrigerant recovery link; The third solenoid valve is arranged on the third refrigerant recovery link.

7. The swimming pool air conditioning system according to claim 6, characterized in that: The refrigerant recovery unit also includes: a first one-way valve, disposed on the first refrigerant recovery link and between the first solenoid valve and the third condenser; a second one-way valve, disposed on the second refrigerant recovery link and between the second solenoid valve and the indoor evaporator; a third one-way valve, arranged on the third refrigerant recovery link and arranged between the third solenoid valve and the indoor evaporator; The sixth connection point is arranged between the first one-way valve and the indoor evaporator.

8. The swimming pool air conditioning system according to claim 7, characterized in that: Also includes: A four-way valve is arranged between the second condenser and the second hot gas three-way reversing valve. The first end of the four-way valve is connected to the second condenser, the second end of the four-way valve is connected to the second hot gas three-way reversing valve, and the third end of the four-way valve is connected to the connecting link between the gas-liquid separator and the indoor evaporator.

9. The swimming pool air conditioning system according to claim 8, characterized in that: Also includes: a fourth one-way valve, disposed between the third condenser and the liquid reservoir, wherein one end of the fourth one-way valve is connected to the third condenser through a pipeline, and the other end of the fourth one-way valve is connected to the connection link between the liquid reservoir and the first condenser through a pipeline; a fifth one-way valve, disposed between the second condenser and the liquid reservoir, wherein one end of the fifth one-way valve is connected to the second condenser through a pipeline, and the other end of the fifth one-way valve is connected to the liquid reservoir through a pipeline; The sixth one-way valve is arranged between the first condenser and the liquid reservoir, one end of the pipeline of the sixth one-way valve is connected to the first condenser, and the other end of the pipeline of the sixth one-way valve is connected to the connection link between the liquid reservoir and the first condenser.

10. The swimming pool air conditioning system according to claim 9, characterized in that: Also includes: a high-pressure control valve, arranged on a connection link between the fourth one-way valve and the liquid reservoir; a first throttle valve connected in parallel to both ends of the fifth one-way valve; a second throttle valve, disposed on a connection link between the indoor evaporator and the liquid reservoir; A liquid three-way reversing valve is arranged on the connection link between the second throttle valve and the liquid reservoir, one end of the pipeline of the liquid three-way reversing valve is connected to the second throttle valve, and the other end of the pipeline of the liquid three-way reversing valve is connected to the liquid reservoir; A fourth solenoid valve, one end of the pipeline of the fourth solenoid valve is connected to the fifth one-way valve, and the other end of the pipeline of the fourth solenoid valve is connected to the connecting link between the high-pressure control valve and the sixth one-way valve; the liquid three-way reversing valve is also connected to the connecting link between the fifth one-way valve and the fourth solenoid valve through a pipeline.

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