Distributed swimming pool total heat recovery energy station system with dehumidification function

Abstract

The invention relates to a total heat recovery system, in particular to a distributed swimming pool total heat recovery energy station system with a dehumidification function. The indoor swimming pool space latent heat recovery system comprises a plurality of machine heads and a latent heat recovery dehumidification air conditioner heat pump unit connected with the machine heads. The latent heat recovery dehumidification air-conditioning heat pump unit is communicated with the swimming pool; the outdoor air heat recovery system comprises a plurality of heat source towers and a heat source tower heat pump unit connected with the heat source towers. The heat source tower heat pump unit is communicated with the swimming pool; the system further comprises a power distribution cabinet and a control cabinet. The control cabinet is used for switching a primary heating mode and a water temperature maintaining mode of swimming pool water. Compared with a conventional dehumidification heat pump and multi-heat-source equipment configured in a multi-demand scene, heat can be absorbed outdoors through the heat source tower and converted into a high-quality heat source through the multi-machine-head host heat pump, latent heat of the natatorium can be recycled, energy consumption can be reduced, the system is an energy station system, and the system is suitable for popularization and application. And multipurpose heat source supply can be provided for the natatorium.

Description

TECHNICAL FIELD

[0001] The present application relates to a total heat recovery system, in particular to a distributed pool total heat recovery energy station system with dehumidification function. BACKGROUND

[0002] Although the three-in-one dehumidification heat pump commonly used in swimming pools has perfect process, standards and procedures, it has significant design defects. The design of large air volume, high air speed, low condensation point and low temperature outflow in the evaporation section and high heat recovery energy consumption results in a large difference between nominal dehumidification capacity and actual dehumidification capacity, thereby causing high energy consumption.

[0003] Taking a standard swimming pool as an example, the three-in-one dehumidification heat pump not only has high input power and huge electricity consumption cost, but also the exhaust heat in the dehumidification process is not recycled, which further aggravates the energy consumption problem. SUMMARY

[0004] The purpose of the present application is to solve the technical problem of high power consumption and high operating cost of the existing dehumidification heat pump in use, and to provide a distributed pool total heat recovery energy station system with dehumidification function.

[0005] To solve the above technical problems, the technical solution provided by the present application is as follows:

[0006] A distributed pool total heat recovery energy station system with dehumidification function, comprising an indoor pool space latent heat recovery system and an outdoor air heat recovery system;

[0007] The indoor pool space latent heat recovery system comprises a plurality of indoor heads and a latent heat recovery dehumidification air conditioning heat pump unit connected to the coil in the plurality of heads; the heat exchange cavity of the first condenser in the latent heat recovery dehumidification air conditioning heat pump unit is in communication with the pool;

[0008] The outdoor air heat recovery system comprises a plurality of outdoor heat source towers and a heat source tower heat pump unit connected to the heat exchange coil in the plurality of heat source towers; the heat exchange cavity of the second condenser in the heat source tower heat pump unit is in communication with the pool;

[0009] It also includes a power distribution cabinet and a control cabinet, and the heads, the latent heat recovery dehumidification air conditioning heat pump unit, the heat source towers and the heat source tower heat pump unit are connected to the power distribution cabinet and the control cabinet, and the control cabinet is used to switch the initial heating mode and the water temperature maintaining mode of the pool water;

[0010] In the initial heating mode, the control cabinet controls the plurality of heads to absorb the latent heat in the indoor hot and humid air through the coil and dehumidify the indoor hot and humid air; the control cabinet controls the plurality of heat source towers to absorb the total heat in the outdoor air through the heat exchange coil;

[0011] The latent heat recovery dehumidification air conditioner heat pump unit exchanges heat with the pool water in the pool through the heat exchange cavity of the first condenser after heat exchange with the heat exchange coil.

[0012] In the water temperature maintaining mode, the control cabinet controls any one of the suction heads to absorb the latent heat in the room and dehumidify the hot and humid air in the room; and the latent heat recovery dehumidification air conditioner heat pump unit exchanges heat with the pool water in the pool through the heat exchange cavity of the first condenser after heat exchange with the heat exchange coil.

[0013] Further, the latent heat recovery dehumidification air conditioner heat pump unit comprises the first condenser, and a first compressor, a first evaporator and a first expansion valve connected in sequence between the liquid inlet and the liquid outlet of the first condenser.

[0014] The suction head is provided with a heat absorption and dehumidification assembly.

[0015] The heat exchange cavity liquid inlet and the heat exchange cavity liquid outlet of the first evaporator are respectively provided with a first liquid outlet pipe and a first liquid return pipe.

[0016] The liquid inlets of the plurality of heat absorption and dehumidification assemblies are connected with the first liquid return pipe through a first liquid inlet branch pipe, and the liquid outlets of the plurality of heat absorption and dehumidification assemblies are connected with the first liquid outlet pipe through a first liquid outlet branch pipe; and the first liquid return pipe is provided with a first circulating pump.

[0017] The heat exchange cavity liquid inlet and the heat exchange cavity liquid outlet of the first condenser are respectively connected with the pool through a first pool water outlet pipe and a first pool water return pipe, and the first pool water outlet pipe is provided with a first circulating water pump.

[0018] Further, the heat source tower heat pump unit comprises the second condenser, and a second compressor, a second evaporator and a second expansion valve connected in sequence between the liquid inlet and the liquid outlet of the second condenser.

[0019] The heat exchange cavity liquid inlet and the heat exchange cavity liquid outlet of the second evaporator are respectively provided with a second liquid outlet pipe and a second liquid return pipe.

[0020] The liquid inlets of the plurality of heat exchange coils of the heat source tower are connected with the second liquid return pipe through a second liquid inlet branch pipe, and the liquid outlets of the plurality of heat exchange coils are connected with the second liquid outlet pipe through a second liquid outlet branch pipe; and the second liquid return pipe is provided with a second circulating pump.

[0021] The heat exchange cavity liquid inlet and the heat exchange cavity liquid outlet of the second condenser are respectively connected with the pool through a second pool water outlet pipe and a second pool water return pipe, and the second pool water outlet pipe is provided with a second circulating water pump.

[0022] Further, the heat absorption and dehumidification assembly comprises a plurality of layers of staggered heat exchange coils, the cross section of the heat exchange coil is a square, and one diagonal of the cross section of the heat exchange coil is in the same direction as the air inlet of the suction head.

[0023] Further, the water inlet temperature of the coil is 7-10 DEG C, and the water outlet temperature is 13-16 DEG C.

[0024] Further, the coil is provided with a plurality of equally spaced fins;

[0025] The spacing between adjacent two fins is 3.5-7mm.

[0026] Further, the spacing between adjacent two fins is 3.7mm.

[0027] Further, the outer surface of the coil and the fin is provided with a hydrophobic nano layer.

[0028] Further, the first liquid inlet branch pipe and the second liquid inlet branch pipe are provided with electromagnetic valves electrically connected with the control cabinet.

[0029] Compared with the prior art, the beneficial effects of the present application are:

[0030] 1. The distributed pool total heat recovery energy station system with dehumidification function provided by the present application, by setting multiple machine heads and multiple heat source towers, and a latent heat recovery dehumidification air conditioning heat pump unit and a heat source tower heat pump unit connected with the multiple machine heads and the multiple heat source towers respectively, the latent heat recovery dehumidification air conditioning heat pump unit cooperates with the multiple machine heads to absorb the latent heat in the room and exchanges heat with the pool water in the pool through a first condenser, the heat source tower heat pump unit cooperates with the multiple heat source towers to absorb the total heat in the room and exchanges heat with the pool water in the pool through a second condenser, for the initial heat or water temperature maintenance of the pool water in the pool, and when used for the first time, all the machine heads in the indoor pool space latent heat recovery system can cooperate with the heat source tower heat pump unit to heat the pool water in the pool, when the temperature of the pool water in the pool reaches 26-28 DEG C, only one machine head in the indoor pool space latent heat recovery system can cooperate with the latent heat recovery dehumidification air conditioning heat pump unit to heat the pool water, so as to keep the pool water temperature constant at 26-28 DEG C, compared with the conventional dehumidification heat pump, not only the energy consumption can be reduced, but also the exhaust heat in the dehumidification process can be recycled.

[0031] 2. The distributed pool total heat recovery energy station system with dehumidification function provided by the present application, by setting the cross section of the coil as a square, and the direction of the air inlet of the machine head is the same as one diagonal line of the cross section of the coil, the contact area of the coil and the air entering the machine head can be increased, which is helpful to form water droplets after the air exchanges heat with the chilled water in the coil and slides down, which is helpful to improve the dehumidification efficiency and the recovery efficiency of the exhaust heat in the dehumidification process.

[0032] 3. The distributed swimming pool total heat recovery energy station system with dehumidification function has the advantages that the fins help to increase the contact area of the coil and air, help to enhance the condensation effect, and improve the dehumidification efficiency; in addition, the spacing between the two adjacent fins is set to 3.5-7mm, which helps to separate the water droplets formed between the two fins from the fins.

[0033] 4. The distributed swimming pool total heat recovery energy station system with dehumidification function provided by the application does not need air source heat pump and other equipment, and the input power is reduced from 500KW in the traditional mode to 300KW through the indoor swimming pool space latent heat recovery system and the outdoor air heat recovery system, which has remarkable energy saving effect and greatly reduces the operation cost. BRIEF DESCRIPTION OF DRAWINGS

[0034] Figure 1 It is a structural schematic diagram of an embodiment of the application.

[0035] Figure 2 It is a structural schematic diagram of a coil in an embodiment of the application.

[0036] The reference signs are as follows: 1-head, 2-latent heat recovery dehumidification air conditioner heat pump unit, 21-first condenser, 22-first compressor, 23-first evaporator, 24-first expansion valve, 3-heat source tower, 4-heat source tower heat pump unit, 41-second condenser, 42-second compressor, 43-second evaporator, 44-second expansion valve, 5-swimming pool, 6-heat absorption dehumidification assembly, 61-coil, 7-first liquid outlet pipe, 8-first liquid return pipe, 9-first liquid inlet branch pipe, 10-first liquid outlet branch pipe, 11-first circulating pump, 12-first swimming pool water outlet pipe, 13-first swimming pool water return pipe, 14-first circulating water pump, 15-second liquid outlet pipe, 16-second liquid return pipe, 17-second liquid inlet branch pipe, 18-second liquid outlet branch pipe, 19-second circulating pump, 20-second swimming pool water outlet pipe, 21-second swimming pool water return pipe, 22-second circulating water pump, 23-solenoid valve. DETAILED DESCRIPTION

[0037] The technical solutions in the application will be described clearly and completely in combination with the drawings. Obviously, the described embodiments are only part of the embodiments of the application, rather than all the embodiments. Based on the embodiments of the application, all other embodiments obtained by those skilled in the art without creative labor fall within the protection scope of the application.

[0038] As Figure 1As shown, a distributed pool total heat recovery energy station system with dehumidification function comprises an indoor pool space latent heat recovery system and an outdoor air heat recovery system; the indoor pool space latent heat recovery system comprises a plurality of indoor heads 1 and a latent heat recovery dehumidification air conditioning heat pump unit 2 connected with the coil pipes 61 in the heads 1; the heat exchange cavity of the first condenser 21 in the latent heat recovery dehumidification air conditioning heat pump unit 2 is communicated with the pool 5;

[0039] The outdoor air heat recovery system comprises a plurality of outdoor heat source towers 3 and a heat source tower heat pump unit 4 connected with the heat exchange coil pipes in the heat source towers 3; the heat exchange cavity of the second condenser 41 in the heat source tower heat pump unit 4 is communicated with the pool 5;

[0040] Further comprising a power distribution cabinet and a control cabinet, the heads 1, the latent heat recovery dehumidification air conditioning heat pump unit 2, the heat source towers 3 and the heat source tower heat pump unit 4 are connected with the power distribution cabinet and the control cabinet, and the control cabinet is used for switching the initial heating mode and the water temperature maintaining mode of the pool water;

[0041] In the initial heating mode, the control cabinet controls the heads 1 to absorb the latent heat in the indoor hot and humid air through the coil pipes 61 and dehumidify the indoor hot and humid air; the control cabinet controls the heat source towers 3 to absorb the total heat in the outdoor air through the heat exchange coil pipes; the latent heat recovery dehumidification air conditioning heat pump unit 2 exchanges heat with the coil pipes 61 and then exchanges heat with the pool water in the pool 5 through the heat exchange cavity of the first condenser 21; and the heat source tower heat pump unit 4 exchanges heat with the heat exchange coil pipes and then exchanges heat with the pool water in the pool 5 through the heat exchange cavity of the second condenser 41.

[0042] In the water temperature maintaining mode, the control cabinet controls any head 1 to absorb the latent heat in the indoor air and dehumidify the indoor hot and humid air; the latent heat recovery dehumidification air conditioning heat pump unit 2 exchanges heat with the coil pipes 61 and then exchanges heat with the pool water in the pool 5 through the heat exchange cavity of the first condenser 21.

[0043] As shown in the figure, Figure 1 The latent heat recovery dehumidification air conditioning heat pump unit 2 comprises a first condenser 21, a first compressor 22, a first evaporator 23 and a first expansion valve 24 connected in sequence between the liquid inlet and the liquid outlet of the first condenser 21; the head 1 is provided with a heat absorption and dehumidification assembly 6; as shown in the figure, Figure 2 The heat absorption and dehumidification assembly 6 comprises a plurality of coil pipes 61 arranged in multiple layers in a staggered manner, the cross section of the coil pipe 61 is a square, and one diagonal line of the cross section of the coil pipe 61 is the same as the direction of the air inlet of the head 1; Figure 2The arrow direction in the machine head is the air inlet direction of the machine head; the water inlet temperature of the coil 61 is 7-10℃, and the water outlet temperature is 13-16℃; the first evaporator 23 is provided with a first liquid outlet pipe 7 and a first liquid return pipe 8 at the inlet and outlet of the heat exchange cavity, respectively; the liquid inlets of the plurality of heat absorption and dehumidification assemblies 6 are connected to the first liquid return pipe 8 through a first liquid inlet branch pipe 9, and the liquid outlets of the plurality of heat absorption and dehumidification assemblies 6 are connected to the first liquid outlet pipe 7 through a first liquid outlet branch pipe 10; the first liquid return pipe 8 is provided with a first circulating pump 11; the inlet and outlet of the heat exchange cavity of the first condenser 21 are connected to the swimming pool 5 through a first swimming pool water outlet pipe and a first swimming pool water return pipe, respectively, and the first swimming pool water outlet pipe is provided with a first circulating water pump 14. The first compressor 22, the first circulating pump 11 and the first circulating water pump 14 are connected to the power distribution cabinet and the control cabinet.

[0044] As shown in Figure 1 , the latent heat recovery and dehumidification air conditioning heat pump unit 2 works under the action of the fan in the machine head 1, and the hot and humid air in the room enters the machine head 1 through the air inlet of the machine head 1 and exchanges heat with the chilled water in the coil 61, so that the chilled water is heated. At the same time, the hot and humid air condenses to form water droplets on the outer wall of the coil 61, which slides down the outer wall of the coil 61, realizing the cooling and dehumidification of the hot and humid air. The air after cooling and dehumidification is discharged from the air outlet of the machine head under the action of the fan; the heated chilled water exchanges heat with the refrigerant in the heat exchange cavity of the first evaporator 23; the refrigerant absorbs heat and evaporates into gas; the gaseous refrigerant is compressed by the first compressor 22 and converted into high-temperature and high-pressure gaseous refrigerant; the high-temperature and high-pressure gaseous refrigerant exchanges heat with the swimming pool water in the first condenser 21, and becomes high-pressure liquid refrigerant, while the temperature of the swimming pool water is raised; the high-pressure liquid refrigerant is throttled by the first expansion valve 24 to become low-pressure and low-temperature liquid refrigerant; the cycle is repeated, so that the temperature of the water in the swimming pool 5 is raised.

[0045] As shown in Figure 1 , the heat source tower heat pump unit 4 includes a second condenser 41, and a second compressor 42, a second evaporator 43 and a second expansion valve 44 connected in sequence between the liquid inlet and outlet of the second condenser 41; the second evaporator 43 is provided with a second liquid outlet pipe 15 and a second liquid return pipe 16 at the inlet and outlet of the heat exchange cavity, respectively; the liquid inlets of the plurality of heat exchange coils of the heat source tower 3 are connected to the second liquid return pipe 16 through a second liquid inlet branch pipe 17, and the liquid outlets of the plurality of heat exchange coils are connected to the second liquid outlet pipe 15 through a second liquid outlet branch pipe 18; the second liquid return pipe 16 is provided with a second circulating pump 19; the inlet and outlet of the heat exchange cavity of the second condenser 41 are connected to the swimming pool 5 through a second swimming pool water outlet pipe and a second swimming pool water return pipe, respectively, and the second swimming pool water outlet pipe is provided with a second circulating water pump 22. The second compressor 42, the second circulating pump 19 and the second circulating water pump 22 are connected to the power distribution cabinet and the control cabinet.

[0046] At the same time, the spacing of the fins on the heat exchange coil of the heat source tower 3 is 5mm, and the defrosting device of the heat source tower 3 uses a glycol solution circulation pipeline or an electric auxiliary to defrost the heat exchange coil, so that the heat exchange coil does not frost at -25℃.

[0047] As shown in Figure 1 , when the heat source tower heat pump unit 4 is working, outdoor air enters the heat source tower 3 and exchanges heat with the cold carrier in the coil 61 in the heat source tower 3, so that the cold carrier is heated; the heated cold carrier exchanges heat with the refrigerant in the heat exchange cavity of the second evaporator 43; the refrigerant is evaporated into a gaseous state after absorbing heat; the refrigerant is compressed into a high-temperature and high-pressure gaseous refrigerant after being evaporated into a gaseous state; the high-temperature and high-pressure gaseous refrigerant exchanges heat with the pool water in the heat exchange cavity in the second condenser 41, and becomes a high-pressure liquid refrigerant, while the temperature of the pool water is raised; the high-pressure liquid refrigerant is throttled by the second expansion valve 44 to become a low-pressure and low-temperature liquid refrigerant; thus, the water temperature in the pool 5 is raised.

[0048] As shown in Figure 1 , in order to separately control the head 1 and the heat source tower 3, the first liquid inlet branch pipe 9 and the second liquid inlet branch pipe 17 are each provided with an electromagnetic valve 23 electrically connected to the control cabinet, so as to facilitate switching between the initial heating mode and the water temperature maintaining mode through the control cabinet.

[0049] In this embodiment, when initially used, all the heads 1 in the indoor pool space latent heat recovery system can be used in cooperation with the heat source tower heat pump unit 4 to heat the pool water in the pool 5, and when the temperature of the pool water in the pool 5 reaches 26-28℃, only one head 1 in the indoor pool space latent heat recovery system can be used in cooperation with the latent heat recovery dehumidification air conditioning heat pump unit 2 to heat the pool water, so as to keep the pool water temperature constant at 26-28℃.

[0050] Compared with the traditional heat recovery dehumidification system, the distributed pool total heat recovery energy station system with dehumidification function of the embodiment can greatly reduce energy consumption and save operation cost; the specific comparison table is as follows:

[0051]

[0052] In addition, for a non-standard swimming pool in Xianyang City, the distributed pool 5 total heat recovery system with dehumidification function provided by the embodiment is used, and the actual energy consumption output power is 167KW, and the annual saving cost is 830,000 yuan (electricity price 0.8 yuan / KWh).

[0053] In other embodiments of the present application, in order to improve the heat absorption and dehumidification efficiency of the heat absorption and dehumidification assembly 6, a plurality of equally spaced fins are arranged on the coil 61; in order to make the dew condensing on the coil 61 and located between two adjacent fins can be smoothly dropped, the interval between two adjacent fins is 3.7mm.

[0054] In order to make the dew can quickly on the surface of the coil 61, the surface of the fin slip, the outer surface of the coil 61 and the fin is provided with a hydrophobic nano layer.

[0055] In other embodiments of the present application, a water collector and a water distributor can also be arranged at the liquid inlet and liquid outlet of the heat exchange cavity of the first condenser 21; through the water distributor and the water collector, the swimming pool water can be used for heating, heating, shower and other multiple requirements.

[0056] The above is only a specific implementation of the present application, but the protection scope of the present application is not limited to this, any change or replacement within the technical scope disclosed in the present application should be covered in the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the protection scope of the claims.

Claims

1. A distributed swimming pool full heat recovery energy station system with dehumidification function, characterized by: Including indoor pool space latent heat recovery system and outdoor air heat recovery system; The indoor swimming pool space latent heat recovery system comprises a plurality of heads (1) placed indoors, and a latent heat recovery dehumidification air conditioning heat pump unit (2) placed outdoors and connected to the coils (61) in the plurality of heads (1); the heat exchange chamber of the first condenser (21) in the latent heat recovery dehumidification air conditioning heat pump unit (2) is in communication with the swimming pool (5); The outdoor air heat recovery system comprises a plurality of outdoor heat source towers (3), and a heat source tower heat pump unit (4) connected to the heat exchange coils in the plurality of heat source towers (3); the heat exchange cavity of the second condenser (41) in the heat source tower heat pump unit (4) is connected to the swimming pool (5); It also includes a power distribution cabinet and a control cabinet, wherein the head (1), the latent heat recovery dehumidification air conditioning heat pump unit (2), the heat source tower (3), and the heat source tower heat pump unit (4) are all connected to the power distribution cabinet and the control cabinet, and the control cabinet is used to switch the initial heating mode and the water temperature maintenance mode of the swimming pool water; In the primary heating mode, the control cabinet controls the plurality of heads (1) to absorb latent heat in the indoor hot and humid air through the coil (61) and dehumidify the indoor hot and humid air; the control cabinet controls the plurality of heat source towers (3) to absorb full heat in the outdoor air through the heat exchange coil; The latent heat recovery dehumidification air conditioning heat pump unit (2) exchanges heat with the coil (61) and then exchanges heat with the pool water in the swimming pool (5) through the heat exchange cavity of the first condenser (21); the heat source tower heat pump unit (4) exchanges heat with the heat exchange coil and then exchanges heat with the pool water in the swimming pool (5) through the heat exchange cavity of the second condenser (41); In the water temperature maintenance mode, the control cabinet controls any machine head (1) to absorb the latent heat in the room and dehumidify the hot and humid air in the room; the latent heat recovery dehumidification air conditioning heat pump unit (2) exchanges heat with the coil (61) and then exchanges heat with the pool water in the swimming pool (5) through the heat exchange chamber of the first condenser (21).

2. The distributed swimming pool full heat recovery energy station system with dehumidification function according to claim 1 is characterized by: The latent heat recovery dehumidification air conditioning heat pump unit (2) comprises the first condenser (21), and a first compressor (22), a first evaporator (23) and a first expansion valve (24) connected in sequence between the liquid inlet and the liquid outlet of the first condenser (21); A heat absorption and dehumidification component (6) is provided in the machine head (1); A first liquid outlet pipe (7) and a first liquid return pipe (8) are respectively provided at the liquid inlet and liquid outlet of the heat exchange chamber of the first evaporator (23); The liquid inlets of the plurality of heat-absorbing and dehumidifying components (6) are connected to the first liquid return pipe (8) via a first liquid inlet branch pipe (9), and the liquid outlets of the plurality of heat-absorbing and dehumidifying components (6) are connected to the first liquid outlet pipe (7) via a first liquid outlet branch pipe (10); a first circulation pump (11) is provided on the first liquid return pipe (8); The liquid inlet and liquid outlet of the heat exchange chamber of the first condenser (21) are connected to the swimming pool (5) through a first swimming pool water outlet pipe and a first swimming pool water return pipe respectively, and a first circulating water pump (14) is provided on the first swimming pool water outlet pipe.

3. The distributed swimming pool full heat recovery energy station system with dehumidification function according to claim 1 is characterized by: The heat source tower heat pump unit (4) includes the second condenser (41), and a second compressor (42), a second evaporator (43), and a second expansion valve (44) sequentially connected between the liquid inlet and the liquid outlet of the second condenser (41); A second liquid outlet pipe (15) and a second liquid return pipe (16) are respectively provided at the liquid inlet and liquid outlet of the heat exchange chamber of the second evaporator (43); The liquid inlets of the heat exchange coils of the plurality of heat source towers (3) are all connected to the second liquid return pipe (16) via the second liquid inlet branch pipe (17), and the liquid outlets of the plurality of heat exchange coils are all connected to the second liquid outlet pipe (15) via the second liquid outlet branch pipe (18); a second circulation pump (19) is provided on the second liquid return pipe (16); The liquid inlet and liquid outlet of the heat exchange chamber of the second condenser (41) are connected to the swimming pool (5) through a second swimming pool water outlet pipe and a second swimming pool water return pipe respectively, and a second circulating water pump (22) is provided on the second swimming pool water outlet pipe.

4. The distributed swimming pool full heat recovery energy station system with dehumidification function according to claim 1 is characterized by: The heat absorption and dehumidification component (6) comprises multiple layers of staggered coils (61), the cross section of the coils (61) being square; and a diagonal line of the cross section of the coils (61) is in the same direction as the air inlet of the machine head (1).

5. The distributed swimming pool full heat recovery energy station system with dehumidification function according to claim 4 is characterized by: The water inlet temperature of the coil (61) is 7-10°C, and the water outlet temperature is 13-16°C.

6. The distributed swimming pool full heat recovery energy station system with dehumidification function according to claim 4 is characterized by: The coil (61) is provided with a plurality of fins distributed at equal intervals; The distance between two adjacent fins is 3.5-7 mm.

7. The distributed swimming pool full heat recovery energy station system with dehumidification function according to claim 6 is characterized by: The distance between two adjacent fins is 3.7 mm.

8. The distributed swimming pool full heat recovery energy station system with dehumidification function according to any one of claims 4 to 7, characterized in that: The outer surfaces of the coil (61) and the fins are provided with a hydrophobic nano layer.

9. The distributed swimming pool full heat recovery energy station system with dehumidification function according to any one of claims 2-3, characterized in that: The first liquid inlet branch pipe (9) and the second liquid inlet branch pipe (17) are both provided with a solenoid valve (23) electrically connected to the control cabinet.

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