Multi-dimensional integrated heat pump superposition system for swimming pool

Abstract

The application relates to the technical field of heat pump systems, in particular to a multi-dimensional integrated heat pump superposition system of a swimming venue, which comprises a heat pump room arranged in the swimming venue, a heating heat exchange circulating module for heating pool water or domestic hot water and an air dehumidification cold and warm circulating module for air dehumidification are arranged in the heat pump room, an outdoor cold and warm unit module is arranged outside the swimming venue, and the outdoor cold and warm unit module is communicated with the heating heat exchange circulating module and the air dehumidification cold and warm circulating module respectively. The application has the effects of realizing the functions of pool water primary heating, pool water constant temperature, air dehumidification, heat recovery, shower hot water of a heat pump water heater and the like of the multi-dimensional integrated heat pump superposition system of the swimming venue with the advantages of saving materials and energy.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of heat pump systems, in particular to a multi-dimensional integrated heat pump superposition system for a swimming venue. BACKGROUND

[0002] The pool water heating, air dehumidification, air heating or refrigeration for heat recovery, and shower hot water of a swimming venue can now all use heat pump systems, and the dehumidification heat pump used for air dehumidification is an indispensable energy-saving and efficient device.

[0003] The current process of starting and controlling the heat source of the traditional swimming pool venue operation is as follows:

[0004] First, when initial heating of the pool water is required, a swimming pool heat pump water heater is used, and the heat required for initial heating of the pool water (1010.63KW) is much larger than the heat required for maintaining a constant temperature (318.62kw), so the heat pump system to be equipped must meet the heat requirement for initial heating, but after initial heating, there is a surplus of (692.01kw = 1010.63KW-318.62kw) in the originally configured heat pump.

[0005] Second, after the pool water heating is completed, the swimming pool is open for business, but the evaporation of the pool water during the pool water heating process increases the indoor air humidity. When the swimming venue is open, the dehumidification heat pump needs to be started to dehumidify the indoor air of the swimming venue, and during the dehumidification process, some latent heat of the evaporated air humidity is recovered to heat the pool water or the air. If the temperature of the pool water and the air has reached the standard and does not need to be heated in summer, but needs to be cooled and air-conditioned, the recovered heat can be discharged to the outdoor through the outdoor condenser, and the dry and cold air after dehumidification can be sent into the indoor of the swimming venue.

[0006] Third, the pool water and indoor air indicators of the swimming venue can be maintained to a normal state, and the shower hot water system also needs to meet the supply when the venue is open for use, and a heat pump water heater is used to generate sufficient shower hot water; in addition, a heat pump is also needed to provide heating for floor heating in winter.

[0007] In the preparation stage before the above swimming pool venue is open, the pool water, air dehumidification and heat recovery, and shower hot water use three heat pump systems, namely, a swimming pool heat pump water heater, a swimming dehumidification heat pump, and a shower hot water heat pump. However, during these three periods, the three heat pump systems work and control separately, which causes excessive waste of heat pump configuration power and types. SUMMARY

[0008] In order to realize the functions of initial heating of pool water, constant temperature of pool water, dehumidification of air, heat recovery, shower hot water of a heat pump water heater, and the like of a multi-dimensional integrated heat pump superposition system for a swimming venue in a material-saving and energy-saving manner, the present application provides a multi-dimensional integrated heat pump superposition system for a swimming venue.

[0009] The application provides a multi-dimensional integrated heat pump superposition system of a swimming venue.

[0010] The multi-dimensional integrated heat pump superposition system of the swimming venue comprises a heat pump chamber arranged in the swimming venue, a heating heat exchange circulating module for heating pool water or domestic hot water, and an air dehumidification and cooling circulating module for air dehumidification, an outdoor cooling and heating unit module is arranged outside the swimming venue, and the outdoor cooling and heating unit module is in communication with the heating heat exchange circulating module and the air dehumidification and cooling circulating module respectively.

[0011] By adopting the above technical scheme, the multi-dimensional integrated heat pump base machine is integrated to replace the original dehumidification heat pump, the swimming pool heat pump hot water machine, the outdoor condenser and the heat pump hot water machine are all unified into the outdoor cooling and heating unit module (outdoor cooling and heating heat), when the pool water or the domestic hot water of the swimming pool needs to be heated for the first time, the outdoor cooling and heating unit module is started, the outdoor cooling and heating unit absorbs outdoor air heat, and then the heat is transmitted to the heating heat exchange circulating module through a medium, and then the heating heat exchange circulating module is used to heat the pool water or supply the domestic hot water according to the use requirement.

[0012] When the air in the swimming venue needs to be dehumidified, the return air of the swimming venue is dehumidified and dried through the air dehumidification and cooling circulating module, in the process, when the swimming venue needs to be cooled in summer, the outdoor cooling and heating unit module absorbs heat in the air dehumidification and cooling circulating module through a medium, and finally cold air is sent into the swimming venue, when the swimming venue needs to be heated in winter, the outdoor cooling and heating unit releases heat to the air dehumidification and cooling circulating module through a medium, and finally hot air is sent into the swimming venue.

[0013] In this way, under the action of the outdoor cooling and heating unit module, the pool water initial heating, the pool water constant temperature, the air dehumidification, the heat recovery, the domestic shower hot water of the heat pump hot water machine and other functions of the multi-dimensional integrated heat pump superposition system of the swimming venue are realized in a material-saving and energy-saving manner.

[0014] Optionally, one side of the heat pump chamber is respectively provided with a pool water return module and a domestic hot water return module, the heating heat exchange circulating module comprises a heating heat exchanger and a compressor which are connected in sequence through pipelines, the heating heat exchanger is in communication with the outdoor cooling and heating unit module through a pipeline, and the pool water return module and the domestic hot water return module are in communication with the heating heat exchanger through pipelines respectively.

[0015] By adopting the technical scheme, when pool water needs to be heated for the first time or kept at a constant temperature, the pool water is delivered to the heating heat exchanger through the pool water return module, and the outdoor cooling and heating unit module transmits heat to the heating heat exchanger and the compressor through a medium, at this time, the pool water is exchanged in the heating heat exchanger, thereby achieving the purpose of heating the pool water; similarly, when domestic hot water needs to be heated, the domestic water is exchanged in the heating heat exchanger, thereby achieving the purpose of heating and using the domestic water, and further helping to reduce the use of the heat pump, improve the stability of the first heating of the pool water, the constant temperature of the pool water, the heating of the domestic water, and energy saving and consumption reduction.

[0016] Optionally, the air dehumidification and cooling circulation module comprises, in sequence through a pipeline, a return air fan, an evaporator, a reheating condenser, a dual-purpose cooling coil and a supply air fan, the dual-purpose cooling coil is connected in communication with the outdoor cooling and heating unit module through a pipeline, and the natatorium is respectively provided with a supply air sub-module and a return air sub-module, the supply air sub-module is connected in communication with the supply air fan, and the return air sub-module is connected in communication with the return air fan.

[0017] By adopting the technical scheme, under the action of the return air fan, the humidity in the natatorium is sucked into the heat pump room through the return air sub-module, and is first delivered to the evaporator, the evaporator absorbs heat when working to dehumidify the humidity, and then the humidity is delivered to the reheating condenser, the reheating condenser releases heat when working to dry the humidity, and then the humidity is cooled or heated through the dual-purpose cooling coil and the outdoor cooling and heating unit module according to summer or winter, and finally the humidity is sent back to the natatorium through the supply air fan and the supply air sub-module, thereby helping to improve the stability of air dehumidification, cooling and heating in the natatorium.

[0018] Optionally, the supply air sub-module and the return air sub-module each comprise a first air pipe, a static pressure tank and a second air pipe, one end of the first air pipe and the second air pipe is connected in communication with the static pressure tank, the other end of the two second air pipes is connected in communication with the supply air fan and the return air fan respectively, and the other end of the two first air pipes is used for air supply and air return respectively.

[0019] By adopting the technical scheme, when the return air fan and the supply air fan are started, the humidity in the natatorium is first sucked into the first air pipe, and then sucked into the static pressure tank, at this time, the static pressure tank reduces the noise of the return air, and then the return air is sucked into the return air fan through the second air pipe, and under the action of the supply air fan, the humidity is dehumidified and dried in sequence through the evaporator, the reheating condenser and the dual-purpose cooling coil, and finally reenters the natatorium through the first air pipe of the supply air sub-module, so as to circulate, thereby helping to improve the stability of air dehumidification and drying in the natatorium.

[0020] Optionally, the heat pump chamber is provided with a control system for electrically controlling each module, and the swimming pool is respectively provided with a pool water temperature sensor, an enthalpy sensor, an air humidity sensor and an air temperature sensor, and the control system is electrically connected with the pool water temperature sensor, the enthalpy sensor, the air humidity sensor and the air temperature sensor.

[0021] By adopting the above technical scheme, the air temperature sensor is used for monitoring the temperature in the swimming pool and feeding back the temperature value to the control system, the air humidity sensor is used for monitoring the humidity in the swimming pool and feeding back the humidity value to the control system, the pool water temperature sensor is used for monitoring the temperature of the pool water and feeding back the temperature value to the control system, the enthalpy sensor reflects the temperature and humidity state of the air by measuring the enthalpy value and feeds back the state value to the control system, and the control system starts the corresponding module according to the preset value, thereby facilitating the stability of intelligent operation of the multi-dimensional integrated heat pump superposition system.

[0022] Optionally, a plurality of wind baffles are arranged in the first air pipe corresponding to the return air sub-module, the windward surface of the wind baffles is provided with a disinfection lamp, and the first air pipe is provided with a impurity collection mechanism.

[0023] By adopting the above technical scheme, bacteria are easy to be produced in the hot and humid air in the swimming pool, which leads to the decrease of air quality in the swimming pool, at this time, the disinfection lamp is started, and the staggered arrangement of the wind baffles helps to prolong the time length of the flow of the hot and humid air in the first air pipe, so that the hot and humid air has enough time to irradiate disinfection in the first air pipe, and at the same time, the impurity collection mechanism filters and collects the impurities in the hot and humid air, thereby facilitating the improvement of the cleanliness of the air.

[0024] Optionally, the impurity collection mechanism comprises a collection box, a filter screen is arranged between the two wind baffles close to the front end, a collection port is formed in the side wall of the first air pipe, the collection port is in communication with a cleaning cabinet, the collection box is arranged in the cleaning cabinet, and the cleaning cabinet is provided with a moving assembly for moving the collection box.

[0025] By adopting the above technical scheme, when the hot and humid air flows in the first air pipe and passes through the position between the two wind baffles close to the front end, the filter screen filters the hot and humid air at this time, and the particulate impurities in the hot and humid air are finally collected in the collection box under the action of gravity and wind force, and when the collection box needs to be taken out for cleaning, the collection box is taken out from the cleaning cabinet through the moving assembly, the cleaning of the particulate impurities is completed, and thereby the convenience of filtering and cleaning the impurities in the hot and humid air is improved.

[0026] Optionally, the moving assembly comprises a lifting seat, the cleaning cabinet is provided with an L-shaped slide, the lifting seat is slidingly arranged in the L-shaped slide, a sliding seat is further slidingly arranged in the L-shaped slide, a connecting rod is hingedly arranged between the sliding seat and the lifting seat, the collecting box is placed in the lifting seat, a taking and placing opening is formed in the side wall of the cleaning cabinet, and one end of the cleaning cabinet is further provided with a driving member for driving the sliding seat to move.

[0027] By adopting the above technical scheme, when the driving member is started, the driving member drives the sliding seat to slide into the L-shaped slide, the sliding seat drives the lifting seat to slide into the L-shaped slide through the connecting rod, and when the lifting seat abuts against the vertical inner wall of the L-shaped slide, the lifting seat moves upward along the vertical inner wall under the action of the connecting rod, the lifting seat drives the cleaning to move upward, and in the same way, the lifting seat finally drives the collecting box to slide out of the L-shaped slide by starting the reset driving member, and the cleaning box is taken out through the taking and placing opening, thereby facilitating the stability of taking out the cleaning box and collecting the impurity particles.

[0028] Optionally, an oscillating groove is formed in the inner wall of the first air pipe, a fixed shaft is arranged in the oscillating groove, a shutter is arranged in the oscillating groove, one end of the shutter is rotatably sleeved on the fixed shaft, gears are arranged at both ends of the shutter, the gears are sleeved on the fixed shaft, a rack is arranged at each side of the lifting seat, the gears are engaged with the racks, and the first air pipe is provided with a reset member for cooperating with the shutter to rotate.

[0029] By adopting the above technical scheme, when the lifting seat rises, the lifting seat drives the rack to rise, the rack drives the gears to rotate, the gears drive the shutter to flip, and at this time, the collecting opening is opened; in the same way, when the lifting seat descends, the lifting seat drives the rack to descend, the rack drives the gears to reset and rotate, the gears drive the shutter to reset and flip, and at this time, the shutter covers the collecting opening, thereby reducing the exposure of the disinfection light and the harm to the eyes of the operator during the cleaning of the collecting box.

[0030] Optionally, the reset member is a coil spring, a containing groove is formed in the side wall of the gear, the coil spring is arranged in the containing groove, one end of the coil spring is fixedly connected with the inner wall of the containing groove, and the other end of the coil spring is fixedly connected with the side wall of the fixed shaft.

[0031] By adopting the above technical scheme, when the lifting seat rises, the lifting seat drives the gears to rotate through the rack, at this time, the coil spring stores elastic force, when the lifting seat descends and the rack is separated from the gear, the coil spring releases the elastic force and drives the gears to reset and rotate, the gears drive the shutter to reset and rotate, and thereby the stability of the shutter covering the collecting opening is improved.

[0032] In summary, the present application has the following beneficial technical effects:

[0033] The basic mother machine of the multi-dimensional integrated heat pump integrates the original dehumidification heat pump, and replaces the swimming pool heat pump water heater, the outdoor condenser and the heat pump water heater, and all are integrated into an outdoor cooling and heating module (outdoor cooling and heating heat). When the pool water or the domestic hot water needs to be heated for the first time, the outdoor cooling and heating module is started, the outdoor cooling and heating module absorbs the outdoor air heat, and the heat is transmitted to the heating and heat exchange circulation module through the medium, and then the heating and heat exchange circulation module is used to heat the pool water or supply the domestic hot water according to the use requirement;

[0034] When the air in the swimming pool needs to be dehumidified, the recovered swimming pool air is dehumidified and dried through the air dehumidification and cooling circulation module. In summer, when the swimming pool needs to be cooled, the outdoor cooling and heating module absorbs the heat of the air dehumidification and cooling circulation module through the medium, and finally the cold air is sent into the swimming pool. In winter, when the swimming pool needs to be heated, the outdoor cooling and heating module releases the heat of the air dehumidification and cooling circulation module through the medium, and finally the hot air is sent into the swimming pool.

[0035] In this way, under the action of the outdoor cooling and heating module, the pool water initial heating, the pool water constant temperature, the air dehumidification, the heat recovery, the heat pump water heater domestic shower hot water and other functions of the multi-dimensional integrated heat pump superposition system of the swimming pool are realized. BRIEF DESCRIPTION OF DRAWINGS

[0036] Figure 1 It is the principle diagram of the multi-dimensional integrated heat pump superposition system of the swimming pool of the present application;

[0037] Figure 2 It is a part of the principle diagram of the heat pump room of the present application;

[0038] Figure 3 It is a part of the principle diagram of the return air sub-module of the present application;

[0039] Figure 4 It is a part of the structure diagram of the return air sub-module of the present application;

[0040] Figure 5 It is a cross-sectional view of the first air pipe of the present application;

[0041] Figure 6 It is a structure diagram of the moving assembly of the present application;

[0042] Figure 7 It is an enlarged view of A part of Figure 5

[0043] Figure 8 It is a structure diagram of the shutter of the present application.

[0044] ​Explanation of reference signs: 1, heat pump chamber; 2, heating and heat exchange circulation module; 3, air dehumidification and cooling and heating circulation module; 4, outdoor cooling and heating unit module; 5, pool water return module; 6, domestic hot water return module; 7, heating and heat exchanger; 8, compressor; 9, return air fan; 10, evaporator; 11, reheating condenser; 12, dual-purpose air cooler; 13, air supply fan; 14, air supply sub-module; 15, return air sub-module; 16, first air pipe; 17, static pressure tank; 18, second air pipe; 19, wind shield; 20, disinfection lamp; 21, collection box; 22, filter screen; 23, collection port; 24, cleaning cabinet; 25, lifting seat; 26, L-shaped slide; 27, connecting rod; 28, taking and placing port; 29, driving member; 30, swing groove; 31, fixed shaft; 32, shutter; 33, gear; 34, rack; 35, coil spring; 36, sliding seat. DETAILED DESCRIPTION

[0045] The following will be described in detail in combination with the accompanying drawings. Figures 1-8 The present application will be further described in detail.

[0046] Reference will be made to Figure 1 A multi-dimensional integrated heat pump superposition system for a swimming venue includes a heat pump chamber 1 installed in a water treatment chamber of the swimming venue. A heating and heat exchange circulation module 2 and an air dehumidification and cooling and heating circulation module 3 are installed in the heat pump chamber 1. The heating and heat exchange circulation module 2 is used to heat pool water for the first time, to keep the pool water at a constant temperature, and to heat domestic hot water. The air dehumidification and cooling and heating circulation module 3 is used to dehumidify air and to produce heating or cooling air according to the winter or summer. An outdoor cooling and heating unit module 4 is installed outside the swimming venue. In this embodiment, the outdoor cooling and heating unit module 4 is composed of four outdoor cooling and heating heat pumps. The outdoor cooling and heating unit module 4 is connected to the heating and heat exchange circulation module 2 and the air dehumidification and cooling and heating circulation module 3.

[0047] The basic mother machine of the multi-dimensional integrated heat pump integrates a dehumidification heat pump, replaces the original dehumidification heat pump, and integrates the swimming pool heat pump water heater, the outdoor condenser, and the heat pump water heater into the outdoor cooling and heating unit module 4 (outdoor cooling and heating heat). When it is necessary to heat the pool water of the swimming pool for the first time or to heat domestic water, the outdoor cooling and heating unit module 4 is started, the outdoor cooling and heating unit absorbs outdoor air heat, and the heat is transferred to the heating and heat exchange circulation module 2 through a medium. When the heat reaches the set temperature, an electromagnetic valve on the pipeline between the modules is opened, at which time the heat is used to heat the pool water or supplied to the domestic water heating.

[0048] When the air in the natatorium needs to be dehumidified, the air dehumidification and cooling circulation module 3 is used to dehumidify and dry the return air in the natatorium. In summer, when the natatorium needs to be cooled, the outdoor cooling and heating unit module 4 absorbs heat from the air dehumidification and cooling circulation module 3 through a medium, and the cooled air is finally sent into the natatorium. In winter, when the natatorium needs to be heated, the outdoor cooling and heating unit module 4 releases heat to the air dehumidification and cooling circulation module 3 through a medium, and the heated air is finally sent into the natatorium.

[0049] Specifically, referring to Figure 1 and Figure 2 , one side of the heat pump chamber 1 is respectively connected with a pool water return module 5 and a domestic hot water return module 6. The heating and heat exchange circulation module 2 includes a heating heat exchanger 7 and a compressor 8 connected in sequence by a pipeline. The heating heat exchanger 7 is connected with the outdoor cooling and heating unit module 4 by a pipeline. The pool water return module 5 and the domestic hot water return module 6 are respectively connected with the heating heat exchanger 7 by a pipeline.

[0050] The pool water return module 5 is used to circulate and deliver pool water. When the pool water needs to be heated or kept at a constant temperature for the first time, the pool water is delivered to the heating heat exchanger 7 through the pool water return module 5, and the outdoor cooling and heating unit module 4 is started at the same time. The outdoor cooling and heating unit module 4 transfers heat to the heating heat exchanger 7 and the compressor 8 through a medium. At this time, the pool water is heat-exchanged in the heating heat exchanger 7, thereby achieving the purpose of heating the pool water.

[0051] The domestic hot water return module 6 is used to circulate and deliver domestic water. When the domestic hot water needs to be heated, the domestic water is heat-exchanged in the heating heat exchanger 7, thereby achieving the purpose of heating the domestic water.

[0052] Specifically, referring to Figure 1 and Figure 2 , the air dehumidification and cooling circulation module 3 includes a return air fan 9, an evaporator 10, a reheating condenser 11, a dual-purpose cooling coil 12, and a supply air fan 13. The return air fan 9, the evaporator 10, the reheating condenser 11, the dual-purpose cooling coil 12, and the supply air fan 13 are all installed in the heat pump chamber 1 and connected in sequence by a pipeline. The dual-purpose cooling coil 12 is connected with the outdoor cooling and heating unit module 4 by a pipeline, and the dual-purpose cooling coil 12 and the heating heat exchanger 7 are in parallel connection. The natatorium is also respectively provided with a supply air sub-module 14 and a return air sub-module 15. The supply air sub-module 14 is connected with the supply air fan 13, and the return air sub-module 15 is connected with the return air fan 9.

[0053] Referring to Figure 1 and Figure 3The air supply sub-module 14 and the air return sub-module 15 each include a first air pipe 16, a static pressure tank 17, and a second air pipe 18. One end of the first air pipe 16 is fixedly connected to an input end of the static pressure tank 17, and one end of the second air pipe 18 is fixedly connected to an output end of the static pressure tank 17. The other end of the first air pipe 16 is used for air supply or air return, and the other end of the second air pipe 18 is fixedly connected to the air supply fan 13 or the air return fan 9.

[0054] When the air return fan 9 and the air supply fan 13 are started, the hot and humid air in the swimming pool is first sucked into the first air pipe 16, and then into the static pressure tank 17, which is used to reduce wind noise. Then the air return is sucked into the air return fan 9 through the second air pipe 18, and the air return fan 9 delivers the hot and humid air to the evaporator 10, which absorbs heat and dehumidifies the air when working. Then it is delivered to the reheating condenser 11, which releases heat and dries the air when working. Then according to summer or winter, the gas is cooled or heated by the dual-purpose air cooler 12 and the outdoor cooling and heating unit module 4. Finally, it is sent back to the swimming pool through the air supply fan 13, the corresponding second air pipe 18, the corresponding static pressure tank 17, and the corresponding first air pipe 16. This cycle ensures that the air in the swimming pool is dehumidified and dried.

[0055] Specifically, the heat pump chamber 1 is also provided with a control system for electrically controlling each module. The swimming pool is also provided with a pool water temperature sensor, an enthalpy sensor, an air humidity sensor, and an air temperature sensor. The control system is electrically connected to each sensor.

[0056] The air temperature sensor is used to monitor the temperature in the swimming pool and feed back the temperature value to the control system. The air humidity sensor is used to monitor the humidity in the swimming pool and feed back the humidity value to the control system. The pool water temperature sensor is used to monitor the temperature of the pool water and feed back the temperature value to the control system. The enthalpy sensor reflects the temperature and humidity state of the air by measuring the enthalpy and feeds back the state value to the control system. The control system starts the corresponding module according to the preset value.

[0057] It is worth mentioning that the hot and humid air generated by the indoor swimming pool is easy to breed bacteria, which leads to a decrease in air quality in the swimming pool. Therefore, referring to Figure 4 and Figure 5The first air pipe 16 corresponding to the return air sub-module 15 is fixed with a plurality of wind baffles 19. In this embodiment, the number of wind baffles 19 is five, and the five wind baffles 19 form a flow path of the hot and humid air. The windward surface of the wind baffle 19 is fixedly connected with a disinfection lamp 20, and the disinfection lamp 20 is electrically connected with an external power supply. The disinfection lamp 20 can be distributed in the shape of a cross or an interval on the windward surface of the wind baffle 19. The disinfection lamp 20 emits ultraviolet light. Ultraviolet light (especially UVC wave band, 200-280nm) destroys the DNA / RNA structure of microorganisms, so that the microorganisms lose the ability to reproduce.

[0058] Under the action of the return air fan 9, the hot and humid air in the swimming pool is sucked into the first air pipe 16, and the disinfection lamp 20 is turned on. The flow path formed by the five wind baffles 19 is used to prolong the flow time of the hot and humid air in the first air pipe 16, so as to ensure that the hot and humid air is disinfected by ultraviolet light for a sufficient time.

[0059] Referring to Figure 5 and Figure 6 In order to filter and collect particulate impurities in the hot and humid air, an impurity collection mechanism is installed in the first air pipe 16. The impurity collection mechanism includes a collection box 21, a filter screen 22 fixedly connected between the two wind baffles 19 close to the front end position, a collection opening 23 formed in the inner bottom wall of the first air pipe 16, and a cleaning cabinet 24 fixedly connected with the bottom wall of the first air pipe 16 and communicating with the collection opening 23. The collection box 21 is used to collect particulate impurities, and the collection box 21 is installed in the cleaning cabinet 24. The cleaning cabinet 24 is provided with a moving assembly for taking and placing the collection box 21.

[0060] Specifically, referring to Figure 5 and Figure 6 The moving assembly includes a lifting seat 25. The cleaning cabinet 24 is provided with an L-shaped slide 26, and the slide 36 is slidingly installed in the L-shaped slide 26. The lifting seat 25 is located on the top surface of the slide 36, and the collection box 21 is inserted and placed in the lifting seat 25. The lifting seat 25 is also slidingly installed in the L-shaped slide 26. A connecting rod 27 is hingedly connected between the slide 36 and the lifting seat 25, and the connecting rod 27 is inclined in the initial position. The side wall of the cleaning cabinet 24 is provided with a taking and placing opening 28, and the collection box 21 can be taken out from the lifting seat 25 through the taking and placing opening 28. One end of the cleaning cabinet 24 is fixedly connected with a driving member 29. In this embodiment, the driving member 29 is a pneumatic cylinder, and the extension end of the pneumatic cylinder extends into the cleaning cabinet 24 and is hingedly connected with the slide 36.

[0061] When the driving member 29 is started, the telescopic end of the driving member 29 drives the sliding seat 36 to slide into the L-shaped slide 26, the sliding seat 36 drives the lifting seat 25 to slide into the L-shaped slide 26 through the connecting rod 27, and when the lifting seat 25 contacts the vertical section of the L-shaped slide 26, the sliding seat 36 keeps advancing, the sliding seat 36 drives the lifting seat 25 to move upward through the connecting rod 27, the lifting seat 25 drives the collecting box 21 to move upward and is positioned at the collecting opening 23. When the hot and humid air flows, part of the hot and humid air directly drives the particulate impurities to be collected in the cleaning box, and part of the hot and humid air is filtered through the filter screen 22, and the particulate impurities fall and are collected in the cleaning box under the action of gravity.

[0062] When the particulate impurities in the collecting box 21 need to be cleaned, the driving member 29 is first reset, the telescopic end of the driving member 29 drives the sliding seat 36 to slide out of the L-shaped slide 26, the sliding seat 36 drives the lifting seat 25 to descend through the connecting rod 27, and when the lifting seat 25 descends to the horizontal section of the L-shaped slide 26, the lifting seat 25 abuts against the top surface of the sliding seat 36, and the sliding seat 36 drives the lifting seat 25 to slide out of the L-shaped slide 26 through the connecting rod 27, at this time, the collecting box 21 is aligned with the taking and placing opening 28, and the operator takes out the collecting box 21 from the lifting seat 25 through the taking and placing opening 28, and the cleaning of the collecting box 21 is completed.

[0063] Referring to Figure 5 , Figure 6 and Figure 7 , in order to avoid the particulate impurities from falling into the L-shaped slide 26 when the collecting box 21 is taken and placed, and in order to avoid the ultraviolet light from irradiating outside the cleaning cabinet 24 through the collecting opening 23 and the taking and placing opening 28, the inner bottom wall of the first air pipe 16 is provided with a swing groove 30, and the swing groove 30 is fixedly connected with a fixed shaft 31. The swing groove 30 is reversely installed with a shutter 32, and one end of the shutter 32 is rotatably sleeved on the fixed shaft 31. Both ends of the shutter 32 are fixedly connected with a gear 33, and the gear 33 is rotatably sleeved on the fixed shaft 31. Both sides of the lifting seat 25 are fixedly connected with a rack 34, the rack 34 is inserted with the inner wall of the first air pipe 16, and the rack 34 is engaged with the gear 33.

[0064] In addition, referring to Figure 8 , the first air pipe 16 is further provided with a reset member, and the reset member is a coil spring 35. The side wall of the gear 33 is provided with a containing groove, the coil spring 35 is installed in the containing groove, one end of the coil spring 35 is fixedly connected with the inner wall of the containing groove, and the other end of the coil spring 35 is fixedly connected with the side wall of the fixed shaft 31.

[0065] When the lifting seat 25 moves and abuts against the vertical section of the L-shaped slide 26, the rack 34 engages with the gear 33, and when the lifting seat 25 rises, the lifting seat 25 drives the rack 34 to rise, the rack 34 drives the gear 33 to rotate, the coil spring 35 is elastically deformed, and the gear 33 drives the shutter 32 to turn and open, at this time, the collecting opening 23 is open. Similarly, when the lifting seat 25 descends, the lifting seat 25 drives the rack 34 to descend, the rack 34 drives the gear 33 to reset, the gear 33 drives the shutter 32 to reset, and until the lifting seat 25 slides to the horizontal section of the L-shaped slide 26, the rack 34 is disengaged from the gear 33, the coil spring 35 releases the elastic force, and drives the gear 33 to reset, finally, the shutter 32 is stably covered on the collecting opening 23, avoiding the exposure of ultraviolet light and realizing the cleaning of impurity particles while keeping the return air operation continuously.

[0066] Working principle of a multi-dimensional integrated heat pump superposition system of a swimming venue:

[0067] The pool water return module 5 is used for circulating and conveying pool water, when the pool water needs to be heated or kept at a constant temperature for the first time, the pool water is conveyed to the heating heat exchanger 7 through the pool water return module 5, and at the same time, the outdoor cooling and heating unit module 4 is started, the outdoor cooling and heating unit module 4 exchanges heat through a medium to the heating heat exchanger 7 and the compressor 8, at this time, the pool water exchanges heat in the heating heat exchanger 7, thereby achieving the purpose of heating the pool water.

[0068] The domestic hot water return module 6 is used for circulating and conveying domestic water, when the domestic hot water needs to be heated, the domestic water exchanges heat in the heating heat exchanger 7, thereby achieving the purpose of heating the domestic water.

[0069] When the return air fan 9 and the supply air fan 13 are started, the hot and humid air in the swimming venue is first sucked into the first air pipe 16, and then into the static pressure tank 17, which is used to reduce wind noise. Then the return air is sucked into the return air fan 9 through the second air pipe 18, and the return air fan 9 conveys the hot and humid air to the evaporator 10, which absorbs heat and dehumidifies the air when working. Then it is conveyed to the reheating condenser 11, which releases heat and dries the air when working. Then according to the summer or winter, the gas is cooled or heated by the dual-purpose air cooler 12 and the outdoor cooling and heating unit module 4. Finally, it is sent back to the swimming venue through the supply air fan 13, the corresponding second air pipe 18, the corresponding static pressure tank 17 and the corresponding first air pipe 16. Such a cycle ensures that the air in the swimming venue is dehumidified and dried.

[0070] In summary, under the action of the outdoor cooling and heating unit module 4, the multi-dimensional integrated heat pump superposition system of the swimming venue realizes the functions of initial heating of pool water, constant temperature of pool water, dehumidification of air, heat recovery, domestic shower hot water of heat pump water heater, etc.

[0071] The above are all preferred embodiments of the present application, and do not limit the protection scope of the present application, so that: all equivalent changes made according to the structure, shape, principle of the present application should be covered in the protection scope of the present application.

Claims

1. A multi-dimensional integrated heat pump superimposed system of a swimming venue, comprising a heat pump room (1) arranged in the swimming venue, characterized in that: The heat pump chamber (1) is provided with a heating heat exchange circulating module (2) for heating pool water or domestic hot water and an air dehumidification cold and warm circulating module (3) for air dehumidification, and the swimming pool is provided with an outdoor cold and warm unit module (4) outside, which is communicated with the heating heat exchange circulating module (2) and the air dehumidification cold and warm circulating module (3) respectively; The swimming pool is provided with a supply air sub-module (14) and a return air sub-module (15) respectively; The supply air sub-module (14) and the return air sub-module (15) each comprise a first air pipe (16), a static pressure tank (17) and a second air pipe (18), the inner wall of the first air pipe (16) is provided with an oscillating groove (30), the oscillating groove (30) is provided with a fixed shaft (31), the oscillating groove (30) is provided with a shutter (32), one end of the shutter (32) is rotatably sleeved on the fixed shaft (31), and the two ends of the shutter (32) are provided with gears (33) which are sleeved on the fixed shaft (31); The first air pipe (16) is provided with an impurity collecting mechanism, the impurity collecting mechanism comprises a collecting box (21), a cleaning cabinet (24) and a moving assembly, the moving assembly comprises a lifting seat (25), the two sides of the lifting seat (25) are respectively provided with racks (34), the gears (33) are engaged with the racks (34), and the first air pipe (16) is provided with a reset member for cooperating with the shutter (32) to rotate; The reset member is a coil spring (35), the side wall of the gear (33) is provided with a containing groove, the coil spring (35) is arranged in the containing groove, one end of the coil spring (35) is fixedly connected with the inner wall of the containing groove, and the other end of the coil spring (35) is fixedly connected with the side wall of the fixed shaft (31).

2. The multi-dimensional integrated heat pump superimposed system of a swimming venue according to claim 1, characterized in that: One side of the heat pump chamber (1) is provided with a pool water return module (5) and a domestic hot water return module (6) respectively, the heating heat exchange circulating module (2) comprises a heating heat exchanger (7) and a compressor (8) connected in sequence through pipelines, the heating heat exchanger (7) is communicated with the outdoor cold and warm unit module (4) through a pipeline, and the pool water return module (5) and the domestic hot water return module (6) are communicated with the heating heat exchanger (7) through pipelines respectively.

3. The multi-dimensional integrated heat pump superimposed system of a swimming venue according to claim 1, characterized in that: The air dehumidification cold and warm circulating module (3) comprises a return air fan (9), an evaporator (10), a reheating condenser (11), a dual-purpose surface cooler (12) and a supply air fan (13) connected in sequence through pipelines, the dual-purpose surface cooler (12) is communicated with the outdoor cold and warm unit module (4) through a pipeline, the supply air sub-module (14) is communicated with the supply air fan (13), and the return air sub-module (15) is communicated with the return air fan (9).

4. The multi-dimensional integrated heat pump superimposed system of a swimming venue according to claim 3, characterized in that: One end of the first air pipe (16) and the second air pipe (18) is communicated with the static pressure box (17) respectively, the other end of the two second air pipes (18) is communicated with the air supply fan (13) and the return air fan (9) respectively, and the other end of the two first air pipes (16) is used for air supply and return air respectively.

5. The multi-dimensional integrated heat pump superimposed system of a swimming venue according to claim 1, characterized in that: The heat pump chamber (1) is provided with a control system for electrically controlling each module, the swimming pool is provided with a pool water temperature sensor, an enthalpy sensor, an air humidity sensor and an air temperature sensor respectively, and the control system is electrically connected with the pool water temperature sensor, the enthalpy sensor, the air humidity sensor and the air temperature sensor respectively.

6. The multi-dimensional integrated heat pump superimposed system of a swimming venue according to claim 4, characterized in that: The corresponding first air pipe (16) of the return air sub-module (15) is provided with a plurality of wind baffles (19) in a staggered manner respectively, and the windward surface of the wind baffle (19) is provided with a disinfection lamp (20).

7. A multi-dimensional integrated heat pump superimposed system for a swimming venue according to claim 6, characterized in that: A filter screen (22) is arranged between the two wind baffles (19) close to the front end, a collecting opening (23) is formed in the side wall of the first air pipe (16), the collecting opening (23) is communicated with the cleaning cabinet (24), the collecting box (21) is arranged in the cleaning cabinet (24), and the cleaning cabinet (24) is provided with the moving assembly for driving the collecting box (21) to move.

8. A multi-dimensional integrated heat pump superimposed system for a swimming venue according to claim 7, characterized in that: An L-shaped slide (26) is arranged in the cleaning cabinet (24), a lifting seat (25) is slidingly arranged in the L-shaped slide (26), a sliding seat (36) is also slidingly arranged in the L-shaped slide (26), a connecting rod (27) is hingedly arranged between the sliding seat (36) and the lifting seat (25), the collecting box (21) is placed in the lifting seat (25), a taking and placing opening (28) is formed in the side wall of the cleaning cabinet (24), and one end of the cleaning cabinet (24) is further provided with a driving piece (29) for driving the sliding seat (36) to move.

Images