Ultralow-temperature efficient enhanced vapor injection module heat pump unit

Abstract

The invention belongs to the technical field of ultralow-temperature heat pumps, and particularly relates to an ultralow-temperature efficient enhanced vapor injection module heat pump unit which comprises a case and a heat exchange assembly installed in the case, and the heat exchange assembly comprises a heat exchange opening; a heat exchange opening is formed in the left side of the machine box, a filter plate is fixedly installed on the inner wall of the heat exchange opening, an air opening is formed in the rear portion of the machine box, and a fan is installed at the position, corresponding to the air opening, in the machine box. In the using process, the height of the solar panel at the top of the machine case can be adjusted by stretching out and drawing back the hydraulic rod on the rear portion in the device, the two ends of the hydraulic rod rotate with the machine case and the solar panel through second rotating shafts when the hydraulic rod stretches out and draws back, the flexibility of the solar panel in the device can be improved, and solar energy can be conveniently utilized by the solar panel; and water in the solar panel is used for heating, so that auxiliary heating is carried out on the device, the diversity of the device in the heating process is improved, and the device can utilize more resources.

Description

Technical Field

[0001] The invention relates to the technical field of ultra-low temperature heat pumps, and in particular to an ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit. Background Art

[0002] As the impact of global climate change becomes increasingly severe, the demand for heating solutions that can operate stably at lower temperatures continues to increase, and heating devices that can operate stably in ultra-low temperature environments have become a rigid demand.

[0003] However, the heat pumps of the prior art cannot be used in ultra-low temperature environments during use. The low temperature environment will cause the compressor to fail to work or the heating will not meet the requirements, and cannot meet some needs.

[0004] Therefore, an ultra-low temperature and high efficiency jet enthalpy increasing module heat pump unit is needed. Summary of the invention

[0005] The present invention proposes an ultra-low temperature high-efficiency jet enthalpy increase module heat pump unit, which solves the problem in the prior art that the heat pump cannot be used in an ultra-low temperature environment during use, and the low temperature environment will cause the compressor to fail to work or the heating requirement to fail to meet.

[0006] To achieve the above object, the present invention provides the following technical solutions: An ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit comprises a chassis and a heat exchange component installed inside the chassis, wherein the heat exchange component comprises a heat exchange port; A heat exchange port is provided on the left side of the chassis, a filter plate is fixedly installed on the inner wall of the heat exchange port, an air port is installed at the rear of the chassis, a fan is installed at a position inside the chassis corresponding to the air port, a fixed external frame is installed behind the fan, an upper evaporator is installed wrapped inside the fixed external frame, a first connecting pipe is installed on the left side of the upper evaporator, a side evaporator plate is installed on the left side of the first connecting pipe, the other end of the side evaporator plate is connected to the lower evaporator plate, the other end of the lower evaporator plate is connected to the second connecting pipe, the other end of the upper evaporator is connected to the air storage tank, a pressure gauge is fixedly installed inside the air storage tank, an air intake pipe is installed on the right side of the air storage tank, the right side of the air intake pipe is connected to the compressor, and the air supply pipe is connected to the other side of the compressor.

[0007] Preferably, the right side of the second connecting pipe is fluidly connected to the expansion valve, the right side of the expansion valve is fluidly connected to the economizer, the middle part of the economizer is fluidly connected to the compressor through the air supply pipe, the other end of the economizer is fluidly connected to the third connecting pipe, the third connecting pipe is fluidly connected to the condenser at the bottom, a heat exchange water tank is installed outside the condenser, a second water inlet is opened at the lower left corner of the heat exchange water tank, a second water outlet is opened at the upper right corner of the heat exchange water tank, the other end of the condenser is fluidly connected to the air outlet pipe, and the air outlet pipe and the compressor are fixed to each other.

[0008] Preferably, a first rotating shaft is installed on the top of the chassis, a solar panel is installed on the upper left of the first rotating shaft, a hydraulic rod is installed on the end of the solar panel, and a second rotating shaft is installed on both the upper and lower ends of the hydraulic rod, a water storage tank is fixedly installed on the top right side of the solar panel, a first water outlet pipe is installed in front of the water storage tank, the first water outlet pipe and the second water outlet are in circulation with each other, a first water inlet pipe is fixedly installed on the bottom of the solar panel, the first water inlet pipe is in circulation with the second water inlet, valves are installed inside the first water outlet pipe and the first water inlet pipe, a protective plate is installed inside the compressor, a drive motor is installed inside the protective plate, and the output of the drive motor A central rotating shaft is installed at the end, and the central rotating shaft passes through the sealing plate on the top, and the sealing plate and the compressor are fixed to each other, a first rotating plate is installed above the sealing plate, a first moving plate is installed on the top of the first rotating plate, a first fixed plate is meshingly installed on the side of the first moving plate, the first fixed plate and the top fixed plate on the top are fixed to each other, a first air hole is opened inside the top fixed plate, a second rotating plate is installed on the top of the top fixed plate, a second air hole is opened inside the second rotating plate, a second moving plate is fixedly installed on the top of the second rotating plate, a second fixed plate is installed on the side of the second moving plate, a compression air hole is opened on the top of the compressor, and the compression air hole is fluidly connected with the air outlet pipe.

[0009] Preferably, the solar panel forms a rotating structure with the chassis through the first rotating shaft, the solar panel forms a lifting structure with the chassis through the cooperation between the hydraulic rod and the second rotating shaft, the hydraulic rod forms a rotating structure with the chassis through the second rotating shaft, and the hydraulic rod forms a rotating structure with the solar panel through the second rotating shaft.

[0010] Preferably, the filter plate and the chassis are fixed to each other, and the side evaporator plate and the heat exchange port are installed in parallel.

[0011] Preferably, the upper evaporation coil and the lower evaporation plate are both in a spiral structure, the upper evaporation coil forms a flow structure with the side evaporation plate through the first connecting pipe, and the side evaporation plate and the lower evaporation plate form a flow structure.

[0012] Preferably, the second connecting pipe forms a flow structure with the condenser pipe through cooperation between the economizer and the third connecting pipe, and the third connecting pipe forms a flow structure with the compressor through cooperation between the economizer and the air supply pipe.

[0013] Preferably, the first movable plate forms a rotating structure through the cooperation between the first rotating plate and the central rotating shaft, the first fixed plate and the top fixed plate are fixed to each other, and the first fixed plate and the first movable plate both form a spiral structure.

[0014] Preferably, the first movable plate forms a flow structure with the second movable plate through the cooperation between the first air hole and the second air hole, the first air hole is an inclined hole penetrating the top fixed plate, and the second air hole is evenly opened inside the second rotating plate.

[0015] Preferably, the second movable plate forms a rotating structure through the second rotating plate and the central rotating shaft, and the second movable plate and the second fixed plate both have a spiral structure.

[0016] The present invention proposes an ultra-low temperature and high efficiency jet enthalpy increasing module heat pump unit. Compared with the prior art, the present invention has the following beneficial effects: 1. During the use of the present invention, the height of the solar panel on the top of the chassis can be adjusted by telescoping the solar panel inside the device through the rear hydraulic rod. When the hydraulic rod is telescoping, both ends will rotate with the chassis and the solar panel through the second rotating shaft, which can improve the flexibility of the solar panel inside the device, facilitate the solar panel to utilize solar energy, use the water inside the solar panel to heat, and thus perform auxiliary heating on the device, thereby improving the diversity of the device during the heating process and enabling the device to utilize more resources.

[0017] 2. During use, the filter plate can filter the gas entering the device from the heat exchange port to prevent impurities and dust in the gas from adhering to the surface of the internal pipe during circulation, which will reduce the contact area between the air and the pipe, affect the heat exchange effect of the device, and affect the use of the device. At the same time, the side evaporator plate is installed parallel to the heat exchange port, so the air entering the device from the heat exchange port will directly contact the side evaporator plate, and when in contact, it can contact the pipe inside the side evaporator plate, so that the medium with lower temperature flowing inside the side evaporator plate can absorb the heat in the air, and utilize the energy in the air.

[0018] 3. During use, the high-temperature medium discharged from the compressor enters the condenser through the outlet pipe for condensation. After the condensation is completed, the low-temperature medium inside the condenser flows to the lower evaporator plate through the second connecting pipe. When the medium flows through the economizer, the economizer will separate the gas and liquid inside the medium. Part of the gas will enter the compressor through the air supply pipe for air supply compression, thereby improving the energy utilization efficiency of the device.

[0019] 4. During use, the gas compressed by the first movable plate and the first fixed plate can enter the interior of the second movable plate and the second fixed plate on the upper layer through the first air hole and the second air hole, and be compressed again with the remaining medium returned to the compressor, thereby further increasing the energy in the medium. The second movable plate can be driven to rotate by the central rotating shaft at the bottom, and when rotating, it will contact the second fixed plate to compress the medium to increase the energy contained in the medium. The second air holes are evenly arranged inside the second rotating plate, so that the gas compressed by the first movable plate and the first fixed plate at the bottom can flow all the way to the second movable plate and the second fixed plate at the top. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the overall structure of the ultra-low temperature and high efficiency jet enthalpy increase module heat pump unit of the present invention.

[0021] Figure 2 It is a rear structural schematic diagram of the ultra-low temperature and high efficiency jet enthalpy increase module heat pump unit of the present invention.

[0022] Figure 3 It is a schematic diagram of the internal structure of the ultra-low temperature and high efficiency jet enthalpy increase module heat pump unit of the present invention.

[0023] Figure 4 It is a schematic diagram of the cross-sectional structure of the chassis of the ultra-low temperature and high-efficiency jet enthalpy-increasing module heat pump unit of the present invention.

[0024] Figure 5 It is a schematic diagram of the internal circuit structure of the ultra-low temperature and high efficiency jet enthalpy increase module heat pump unit of the present invention.

[0025] Figure 6 This is a schematic diagram of the condenser structure of the ultra-low temperature and high-efficiency jet enthalpy-increasing module heat pump unit of the present invention.

[0026] Figure 7 This is a schematic diagram of the internal structure of the compressor of the ultra-low temperature and high-efficiency jet enthalpy increase module heat pump unit of the present invention.

[0027] Figure 8 This is a schematic diagram of the cross-sectional structure of the compressor of the ultra-low temperature and high-efficiency jet enthalpy-increasing module heat pump unit of the present invention.

[0028] In the figure: 1, chassis; 2, first rotating shaft; 3, solar panel; 4, hydraulic rod; 5, second rotating shaft; 6, first water outlet pipe; 7, first water inlet pipe; 8, valve; 9, second water inlet; 10, second water outlet; 11, heat exchange port; 12, filter plate; 13, air outlet; 14, fan; 15, fixed external frame; 16, upper evaporation circle; 17, first connecting pipe; 18, side evaporation plate; 19, lower evaporation plate; 20, second connecting pipe; 21, expansion valve; 22, economizer; 23, third connecting pipe; 24. Heat exchange water tank; 25. Condenser; 26. Exhaust pipe; 27. Compressor; 28. Protective plate; 29. ​​Drive motor; 30. Central shaft; 31. Sealing plate; 32. First rotating plate; 33. First moving plate; 34. First fixed plate; 35. Top fixed plate; 36. First air hole; 37. Second rotating plate; 38. Second air hole; 39. Second moving plate; 40. Second fixed plate; 41. Compression air hole; 42. Inlet pipe; 43. Air supply pipe; 44. Air storage tank; 45. Pressure gauge; 46. Water storage tank. DETAILED DESCRIPTION

[0029] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0030] See also Figure 1-8 , the present invention provides a technical solution: an ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit, comprising a chassis 1 and a heat exchange component installed inside the chassis 1, the heat exchange component comprising a heat exchange port 11; A heat exchange port 11 is provided on the left side of the chassis 1, a filter plate 12 is fixedly installed on the inner wall of the heat exchange port 11, an air port 13 is installed at the rear of the chassis 1, a fan 14 is installed at a position corresponding to the air port 13 inside the chassis 1, a fixed outer frame 15 is installed behind the fan 14, an upper evaporation coil 16 is installed and wound inside the fixed outer frame 15, a first connecting pipe 17 is installed in the left side of the upper evaporation coil 16, a side evaporation plate 18 is installed in the left side of the first connecting pipe 17, the other end of the side evaporation plate 18 is connected to the lower evaporation plate 19, the other end of the lower evaporation plate 19 is connected to the second connecting pipe 20, the other end of the upper evaporation coil 16 is connected to the air storage tank 44, a pressure gauge 45 is fixedly installed inside the air storage tank 44, an air intake pipe 42 is installed in the right side of the air storage tank 44, the right side of the air intake pipe 42 is connected to the compressor 27, and the air supply pipe 43 is connected to the other side of the compressor 27.

[0031] Furthermore, the right side of the second connecting pipe 20 is fluidly connected to the expansion valve 21, the right side of the expansion valve 21 is fluidly connected to the economizer 22, the middle part of the economizer 22 is fluidly connected to the compressor 27 through the air supply pipe 43, the other end of the economizer 22 is fluidly connected to the third connecting pipe 23, the third connecting pipe 23 is fluidly connected to the condenser 25 at the bottom, a heat exchange water tank 24 is installed on the outside of the condenser 25, a second water inlet 9 is opened at the lower left corner of the heat exchange water tank 24, a second water outlet 10 is opened at the upper right corner of the heat exchange water tank 24, the other end of the condenser 25 is fluidly connected to the air outlet pipe 26, and the air outlet pipe 26 and the compressor 27 are fixed to each other.

[0032] Furthermore, a first rotating shaft 2 is installed on the top of the chassis 1, a solar panel 3 is installed on the upper left of the first rotating shaft 2, a hydraulic rod 4 is installed on the end of the solar panel 3, and a second rotating shaft 5 is installed on both upper and lower ends of the hydraulic rod 4. A water storage tank 46 is fixedly installed on the top of the right side of the solar panel 3, and a first water outlet pipe 6 is installed in front of the water storage tank 46. The first water outlet pipe 6 and the second water outlet 10 are in circulation with each other. A first water inlet pipe 7 is fixedly installed on the bottom of the solar panel 3, and the first water inlet pipe 7 is in circulation with the second water inlet 9. Valves 8 are installed inside the first water outlet pipe 6 and the first water inlet pipe 7, a protective plate 28 is installed inside the compressor 27, a drive motor 29 is installed inside the protective plate 28, and a central rotating shaft 3 is installed on the output end of the drive motor 29. 0, the central rotating shaft 30 passes through the sealing plate 31 at the top, the sealing plate 31 and the compressor 27 are fixed to each other, a first rotating plate 32 is installed above the sealing plate 31, a first moving plate 33 is installed on the top of the first rotating plate 32, a first fixed plate 34 is meshed and installed on the side of the first moving plate 33, the first fixed plate 34 and the top fixed plate 35 at the top are fixed to each other, a first air hole 36 is opened inside the top fixed plate 35, a second rotating plate 37 is installed on the top of the top fixed plate 35, a second air hole 38 is opened inside the second rotating plate 37, a second moving plate 39 is fixedly installed on the top of the second rotating plate 37, a second fixed plate 40 is installed on the side of the second moving plate 39, a compression air hole 41 is opened on the top of the compressor 27, and the compression air hole 41 is connected with the outlet pipe 26 for flow communication.

[0033] Furthermore, the solar panel 3 forms a rotating structure with the chassis 1 through the first rotating shaft 2, and the solar panel 3 forms a lifting structure with the chassis 1 through the cooperation between the hydraulic rod 4 and the second rotating shaft 5. The hydraulic rod 4 forms a rotating structure with the chassis 1 through the second rotating shaft 5, and the hydraulic rod 4 forms a rotating structure with the solar panel 3 through the second rotating shaft 5. During use, the solar panel 3 can be telescoped inside the device by the rear hydraulic rod 4 to adjust the height at the top of the chassis 1. When the hydraulic rod 4 is telescoped, the two ends of the hydraulic rod 4 will rotate with the chassis 1 and the solar panel 3 through the second rotating shaft 5, which can improve the flexibility of the solar panel 3 inside the device, facilitate the solar panel 3 to utilize solar energy, use the water inside the solar panel 3 to heat the water, thereby auxiliary heating the device, improve the diversity of the device during the heating process, and enable the device to utilize more resources.

[0034] Furthermore, the filter plate 12 and the chassis 1 are fixed to each other, and the side evaporator plate 18 and the heat exchange port 11 are installed in parallel. During use, the filter plate 12 can filter the gas entering the device from the heat exchange port 11 to prevent impurities and dust in the gas from adhering to the surface of the internal pipe during the circulation process, resulting in a subsequent reduction in the contact area between the air and the pipe, affecting the heat exchange effect of the device and affecting the use of the device. At the same time, the side evaporator plate 18 is installed in parallel with the heat exchange port 11, so the air entering the device from the heat exchange port 11 will directly contact the side evaporator plate 18, and when in contact, it can contact the pipe inside the side evaporator plate 18, so that the medium with a lower temperature flowing inside the side evaporator plate 18 can absorb the heat in the air and utilize the energy in the air.

[0035] Furthermore, the upper evaporator coil 16 and the lower evaporator plate 19 are both in a spiral structure. The upper evaporator coil 16 forms a flow structure with the side evaporator plate 18 through the first connecting pipe 17, and the side evaporator plate 18 and the lower evaporator plate 19 form a flow structure. During use, the upper evaporator coil 16 and the lower evaporator plate 19 are both in a spiral shape, which is convenient for the upper evaporator coil 16 and the lower evaporator plate 19 to exchange heat with the external air. During use, the medium flowing into the side evaporator plate 18 from the second connecting pipe 20 first exchanges heat with the side evaporator plate 18, and then exchanges heat with the upper evaporator coil 16 through the lower evaporator plate 19, so as to facilitate the use of external heat.

[0036] Furthermore, the second connecting pipe 20 forms a flow structure with the condenser 25 through the cooperation between the economizer 22 and the third connecting pipe 23, and the third connecting pipe 23 forms a flow structure with the compressor 27 through the cooperation between the economizer 22 and the air supply pipe 43. During use, the high-temperature medium discharged from the compressor 27 enters the interior of the condenser 25 through the outlet pipe 26 for condensation. After the condensation is completed, the low-temperature medium inside the condenser 25 flows to the interior of the lower evaporator plate 19 through the second connecting pipe 20. In the process of the medium flowing through the economizer 22, the economizer 22 will separate the gas and liquid inside the medium, and part of the gas will enter the interior of the compressor 27 through the air supply pipe 43 for air supply compression, thereby improving the energy utilization efficiency of the device.

[0037] Furthermore, the first movable plate 33 forms a rotating structure through the cooperation between the first rotating plate 32 and the central rotating shaft 30, the first fixed plate 34 and the top fixed plate 35 are fixed to each other, and the first fixed plate 34 and the first movable plate 33 both have a spiral structure. During use, the driving motor 29 drives the central rotating shaft 30 to rotate inside the device. When the central rotating shaft 30 rotates, it will drive the first rotating plate 32 to rotate inside the device. Since the outside of the first rotating plate 32 is connected to the air supply pipe 43, the gas inside the air supply pipe 43 will enter the inside of the first movable plate 33 and the first fixed plate 34. When the first rotating plate 32 rotates, it will drive the first movable plate 33 fixed to the first rotating plate 32 to rotate. The first fixed plate 34 and the top fixed plate 35 are fixed to each other and do not rotate. Therefore, when the first rotating plate 32 rotates, it will drive the first movable plate 33 to keep in contact with the first fixed plate 34, which is convenient for compressing the internal medium gas and increasing the heat contained in the medium.

[0038] Furthermore, the first movable plate 33 forms a flow structure with the second movable plate 39 through the cooperation between the first air hole 36 and the second air hole 38. The first air hole 36 is an inclined hole that penetrates the top fixed plate 35, and the second air hole 38 is evenly arranged inside the second rotating plate 37. The gas compressed by the first movable plate 33 and the first fixed plate 34 can enter the upper second movable plate 39 and the second fixed plate 40 through the first air hole 36 and the second air hole 38, and be compressed again with the remaining medium returned to the compressor 27 to further increase the energy in the medium. The second movable plate 39 can be driven by the central rotating shaft 30 at the bottom to rotate. When rotating, it will contact the second fixed plate 40 to compress the medium to increase the energy contained in the medium. The second air hole 38 is evenly arranged inside the second rotating plate 37, which facilitates the gas compressed by the first movable plate 33 and the first fixed plate 34 at the bottom to flow to the second movable plate 39 and the second fixed plate 40 at the top.

[0039] Furthermore, the second movable plate 39 forms a rotating structure through the second rotating plate 37 and the central rotating shaft 30. The second movable plate 39 and the second fixed plate 40 both have a spiral structure. The medium flowing into the interior of the device through the air inlet pipe 42 will enter the second movable plate 39 and the second fixed plate 40, and will be compressed again together with the medium compressed by the first movable plate 33 and the first fixed plate 34. The medium is compressed by the second movable plate 39 and the second fixed plate 40 to increase the energy contained in the medium. Then, the high-temperature medium flows out through the compression air hole 41 to the interior of the air outlet pipe 26 for circulation. The temperature of the outflowing medium is increased after two compressions inside the device, which facilitates the use of the device in a low-temperature environment.

[0040] Working principle: First, the medium is compressed by the compressor 27 to increase the energy, and the driving motor 29 drives the central shaft 30 to rotate inside the device. When the central shaft 30 rotates, it will drive the first rotating plate 32 to rotate inside the device. Since the outside of the first rotating plate 32 is connected to the air supply pipe 43, the gas inside the air supply pipe 43 will enter the inside of the first movable plate 33 and the first fixed plate 34. When the first rotating plate 32 rotates, it will drive the first movable plate 33 fixed to the first rotating plate 32 to rotate. The first fixed plate 34 and the top fixed plate 35 are fixed to each other and do not rotate. Therefore, when the first rotating plate 32 rotates, it will drive the first movable plate 33 The gas compressed by the first movable plate 33 and the first fixed plate 34 can enter the interior of the second movable plate 39 and the second fixed plate 40 through the first air hole 36 and the second air hole 38, and is compressed again with the remaining medium returned to the compressor 27, so as to further increase the energy in the medium. The second movable plate 39 can be driven by the central rotating shaft 30 at the bottom to rotate, and when rotating, it will contact the second fixed plate 40 to compress the medium to increase the energy contained in the medium. The second air holes 38 are evenly arranged on the second rotating plate 37. Inside, it is convenient for the gas compressed by the first moving plate 33 and the first fixed plate 34 at the bottom to flow to the second moving plate 39 and the second fixed plate 40 at the top. Then, the compressed high-temperature medium enters the condenser tube 25 through the outlet pipe 26 to exchange heat with the water inside. The condenser tube 25 has a multi-layer structure in a zigzag shape, which can increase the contact area between the medium and the condenser tube 25 and improve the heat exchange efficiency of the device. After the condensation is completed, the low-temperature medium in the condenser tube 25 flows through the second connecting pipe 20 to the inside of the lower evaporation plate 19. When the medium flows through the economizer 22, the economizer 22 will separate the gas and liquid inside the medium, and part of it will be The gas will enter the compressor 27 through the air supply pipe 43 for air supply compression, thereby improving the energy utilization efficiency of the device. Then the medium will flow through the lower evaporator plate 19, the side evaporator plate 18 and the upper evaporator circle 16 respectively. The upper evaporator circle 16 and the lower evaporator plate 19 are both spiral-shaped, which is convenient for the upper evaporator circle 16 and the lower evaporator plate 19 to exchange heat with the external air. During use, the medium flowing into the side evaporator plate 18 from the second connecting pipe 20 will first exchange heat with the side evaporator plate 18, and then pass through the lower evaporator plate 19 and the upper evaporator circle 16 for heat exchange, which is convenient for using the external heat. At the same time, the height of the solar panel 3 on the top of the chassis 1 can be adjusted by telescoping the solar panel 3 inside the device through the rear hydraulic rod 4. When the hydraulic rod 4 is telescoping, both ends will rotate with the chassis 1 and the solar panel 3 through the second rotating shaft 5, which can improve the flexibility of the solar panel 3 inside the device, facilitate the solar panel 3 to utilize solar energy, use the water inside the solar panel 3 to heat, and thus assist in heating the device, thereby improving the diversity of the device during the heating process and enabling the device to utilize more resources.

[0041] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit, comprising a chassis (1) and a heat exchange component installed inside the chassis (1), characterized in that: The heat exchange component comprises a heat exchange port (11); A heat exchange port (11) is provided on the left side of the chassis (1), a filter plate (12) is fixedly mounted on the inner wall of the heat exchange port (11), an air port (13) is mounted on the rear of the chassis (1), a fan (14) is mounted at a position corresponding to the air port (13) inside the chassis (1), a fixed outer frame (15) is mounted behind the fan (14), an upper evaporation coil (16) is wound around the interior of the fixed outer frame (15), a first connecting pipe (17) is mounted on the left side of the upper evaporation coil (16), and a side connecting pipe (17) is mounted on the left side of the first connecting pipe (17). The side evaporator plate (18) is connected to the lower evaporator plate (19) through a flow path, the other end of the lower evaporator plate (19) is connected to the second connecting pipe (20) through a flow path, the other end of the upper evaporator ring (16) is connected to the air storage tank (44) through a flow path, a pressure gauge (45) is fixedly installed inside the air storage tank (44), an air intake pipe (42) is installed on the right side of the air storage tank (44), the right side of the air intake pipe (42) is connected to the compressor (27), and the air supply pipe (43) is connected to the other side of the compressor (27) through a flow path.

2. The ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit according to claim 1 is characterized in that: The right side of the second connecting pipe (20) is connected to the expansion valve (21), the right side of the expansion valve (21) is connected to the economizer (22), the middle of the economizer (22) is connected to the compressor (27) via the air supply pipe (43), the other end of the economizer (22) is connected to the third connecting pipe (23), the third connecting pipe (23) is connected to the condenser (25) at the bottom, a heat exchange tank (24) is installed outside the condenser (25), a second water inlet (9) is provided at the lower left corner of the heat exchange tank (24), a second water outlet (10) is provided at the upper right corner of the heat exchange tank (24), the other end of the condenser (25) is connected to the air outlet pipe (26), and the air outlet pipe (26) and the compressor (27) are fixed to each other.

3. The ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit according to claim 1 is characterized in that: A first rotating shaft (2) is mounted on the top of the chassis (1), a solar panel (3) is mounted on the upper left of the first rotating shaft (2), a hydraulic rod (4) is mounted on the end of the solar panel (3), and a second rotating shaft (5) is mounted on both the upper and lower ends of the hydraulic rod (4); a water storage tank (46) is fixedly mounted on the top of the right side of the solar panel (3), a first water outlet pipe (6) is mounted in front of the water storage tank (46), and the first water outlet pipe (6) and the second water outlet (10) are in flow communication with each other; a first water inlet pipe (7) is fixedly mounted on the bottom of the solar panel (3), the first water inlet pipe (7) and the second water inlet (9) are in flow communication with each other, valves (8) are mounted inside the first water outlet pipe (6) and the first water inlet pipe (7); a protective plate (28) is mounted inside the compressor (27), a driving motor (29) is mounted inside the protective plate (28), and a central rotating shaft (30) is mounted on the output end of the driving motor (29); The central rotating shaft (30) passes through the sealing plate (31) at the top; the sealing plate (31) and the compressor (27) are fixed to each other; a first rotating plate (32) is installed above the sealing plate (31); a first moving plate (33) is installed on the top of the first rotating plate (32); a first fixed plate (34) is installed on the side of the first moving plate (33) in meshing engagement; the first fixed plate (34) and a top fixed plate (35) at the top are fixed to each other; a first air hole (36) is provided inside the top fixed plate (35); a second rotating plate (37) is installed on the top of the top fixed plate (35); a second air hole (38) is provided inside the second rotating plate (37); a second moving plate (39) is fixedly installed on the top of the second rotating plate (37); a second fixed plate (40) is installed on the side of the second moving plate (39); a compression air hole (41) is provided on the top of the compressor (27); the compression air hole (41) is fluidically connected to the air outlet pipe (26).

4. The ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit according to claim 3 is characterized in that: The solar panel (3) forms a rotating structure with the chassis (1) through the first rotating shaft (2); the solar panel (3) forms a lifting structure with the chassis (1) through the cooperation between the hydraulic rod (4) and the second rotating shaft (5); the hydraulic rod (4) forms a rotating structure with the chassis (1) through the second rotating shaft (5); and the hydraulic rod (4) forms a rotating structure with the solar panel (3) through the second rotating shaft (5).

5. The ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit according to claim 1 is characterized in that: The filter plate (12) and the chassis (1) are fixed to each other, and the side evaporation plate (18) and the heat exchange port (11) are installed in parallel.

6. The ultra-low temperature high-efficiency jet enthalpy-increasing module heat pump unit according to claim 1, characterized in that: The upper evaporation coil (16) and the lower evaporation plate (19) are both spiral structures; the upper evaporation coil (16) forms a flow structure with the side evaporation plate (18) through the first connecting pipe (17); and the side evaporation plate (18) and the lower evaporation plate (19) form a flow structure.

7. The ultra-low temperature high efficiency jet enthalpy increasing module heat pump unit according to claim 2, characterized in that: The second connecting pipe (20) forms a flow structure with the condensing pipe (25) through cooperation between the economizer (22) and the third connecting pipe (23), and the third connecting pipe (23) forms a flow structure with the compressor (27) through cooperation between the economizer (22) and the air supply pipe (43).

8. The ultra-low temperature high efficiency jet enthalpy increasing module heat pump unit according to claim 3 is characterized in that: The first movable plate (33) forms a rotating structure through the cooperation between the first rotating plate (32) and the central rotating shaft (30), the first fixed plate (34) and the top fixed plate (35) are fixed to each other, and the first fixed plate (34) and the first movable plate (33) both form a spiral structure.

9. The ultra-low temperature high efficiency jet enthalpy increasing module heat pump unit according to claim 3, characterized in that: The first movable plate (33) forms a flow structure with the second movable plate (39) through the cooperation between the first air hole (36) and the second air hole (38); the first air hole (36) is an inclined hole penetrating the top fixed plate (35); and the second air hole (38) is evenly arranged inside the second rotating plate (37).

10. The ultra-low temperature high efficiency jet enthalpy increase module heat pump unit according to claim 3, characterized in that: The second movable plate (39) forms a rotating structure through the second rotating plate (37) and the central rotating shaft (30), and the second movable plate (39) and the second fixed plate (40) both have a spiral structure.

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