Integrated water-cooled condenser and mounting method

Abstract

The integrated water-cooled condenser comprises a receiver-drier, an inlet and an outlet of the receiver-drier are connected with an upper side plate, and the upper side plate is sequentially connected with a first reversing lamination, a first opening assembly, a second reversing lamination, a second opening assembly, a third reversing lamination, a third opening assembly and a lower side plate from top to bottom; the invention provides an integrated water-cooling condenser which integrates a liquid storage dryer and a water-cooling condenser. The invention further provides an installation method of the integrated water-cooling condenser, and the installation method is achieved through the integrated water-cooling condenser and used for helping a user to better use and install the integrated water-cooling condenser.

Description

Technical Field

[0001] The present invention belongs to the field of water-cooled condensers, and in particular, relates to an integrated water-cooled condenser and an installation method thereof. Background Art

[0002] The integrated water-cooled condenser is a highly efficient heat exchange device that pre-assembles and debugs the compressor, heat exchanger, hydraulic module and electrical control system in the factory to achieve efficient cooling effect. Based on the heat dissipation performance of water and the phase change process of water. In the condenser, high-temperature and high-pressure gaseous refrigerant flows through the condensing tube bundle, while cooling water flows outside the tube bundle. Through heat exchange, the refrigerant releases heat to the cooling water, and the gaseous refrigerant gradually condenses into a high-pressure liquid. The water absorbs heat during the flow process, and then is re-cooled through a cooling tower or cooling water pool for recycling.

[0003] At present, the water-cooled condensers used in new energy electric vehicles are mainly independent, with the liquid receiver dryer arranged on the outside and connected through its pipeline. Due to the limited space in the front cabin of the car, the layout and position of the water-cooled condenser in the car are relatively restricted, resulting in difficulty in installation. Summary of the invention

[0004] The present invention is made to solve the above-mentioned problems, and its purpose is to provide an integrated water-cooled condenser which integrates a liquid storage dryer and a water-cooled condenser, wherein the arrangement form and position of the condenser are not restricted and the installation is convenient, and an installation method for the integrated water-cooled condenser is provided.

[0005] In order to achieve the above object, the technical solution adopted by the present invention is:

[0006] An integrated water-cooled condenser comprises a liquid storage drier, wherein the inlet and outlet of the liquid storage drier are connected with an upper side plate, and the upper side plate is sequentially connected with a first reversing lamination, a first opening assembly, a second reversing lamination, a second opening assembly, a third reversing lamination, a third opening assembly and a lower side plate from top to bottom.

[0007] The first opening assembly, the second opening assembly and the third opening assembly have the same structure and all include a first opening laminate and a second opening laminate. The first opening laminate and the second opening laminate are alternately arranged.

[0008] The first opening laminate and the second opening laminate are square structures, the first opening laminate is provided with first through holes at four corners, the second opening laminate is provided with second through holes at four corners, the first through holes are provided with first hollow bosses, the second through holes are provided with second hollow bosses, the first opening laminate is provided with first ventilation slots, and the second opening laminate is provided with second ventilation slots.

[0009] The first switching lamination is a square structure, a third through hole is provided at the diagonal part of the first switching lamination, a third hollow boss is provided at the third through hole, a fourth through hole is provided at the other diagonal part of the first switching lamination, and a third ventilation slot is also provided on one side of the first switching lamination.

[0010] The second switching lamination is a square structure, the fourth corners of the second switching lamination are provided with fifth through holes, the fifth through holes are provided with fourth hollow bosses, and the second switching lamination is provided with fourth ventilation slots.

[0011] The third switching lamination is a square structure, with sixth through holes provided at three corners of the third switching lamination, a fifth hollow boss provided at the sixth through hole, a first groove provided at another corner of the third switching lamination, and a fifth ventilation groove provided at the third switching lamination.

[0012] The lower plate is a square structure, and a seventh through hole is provided at a pair of corners of the lower plate, and a sixth hollow boss is provided at the seventh through hole. The lower plate is also connected to a mounting plate, and the mounting plate is a square structure, and an eighth through hole and a ninth through hole are provided at a pair of corners of the mounting plate, the eighth through hole is connected to an inlet flange, and the ninth through hole is connected to an outlet flange.

[0013] A tenth through hole is formed at one diagonal portion of the upper plate, a liquid inlet and a liquid outlet are formed at another diagonal portion of the upper plate, a seventh hollow boss is provided at the tenth through hole located on one side of the liquid inlet, the inlet and outlet of the liquid storage dryer are connected with a liquid storage dryer flange, the liquid storage dryer flange is communicated with the liquid inlet and the liquid outlet, a first pipe and a second pipe are connected at both ends of one side of the upper plate, the first pipe is communicated with the tenth through hole on one side, and the second pipe is communicated with the tenth through hole on the other side.

[0014] The upper plate, the second switching lamination, the third switching lamination, the lower plate, the first opening lamination, the second opening lamination and the first switching lamination are respectively provided with a first protective plate, a second protective plate, a third protective plate, a fourth protective plate, a fifth protective plate, a sixth protective plate and a seventh protective plate.

[0015] The present invention also provides a method for installing an integrated water-cooled condenser, which is implemented by the above-mentioned integrated water-cooled condenser and has the following characteristics, including the following steps:

[0016] Step S1, first place the mounting plate at the bottom, and stack the lower plate, the third opening assembly, the third reversing lamination, the second opening assembly, the second reversing lamination, the first opening assembly, the first reversing lamination, and the upper plate in sequence; Step S2, install the liquid storage dryer on the upper plate, and connect the liquid storage dryer flange with the liquid storage dryer and the upper plate; Step S3, install the first pipe, the second pipe, the inlet flange, and the outlet flange.

[0017] The technical effect of the present invention is that by arranging the upper plate, the second reversing laminate, the third reversing laminate, the lower plate, the first opening laminate and the second opening laminate in different positions, the refrigerant can be completely supercooled and liquefied, and sufficient heat can be exchanged in the water-cooled condenser. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] This specification includes the following drawings, which show the following contents:

[0019] Figure 1 It is a schematic diagram of the overall arrangement structure of the present invention;

[0020] Figure 2 It is a schematic diagram of the structure of the upper side plate of the present invention;

[0021] Figure 3 is a schematic diagram of the first commutation lamination structure of the present invention;

[0022] Figure 4 is a schematic diagram of a first open lamination structure of the present invention;

[0023] Figure 5 is a schematic diagram of a second open laminate structure of the present invention;

[0024] Figure 6 is a schematic diagram of the second commutation lamination structure of the present invention;

[0025] Figure 7 is a schematic diagram of a third commutation lamination structure of the present invention;

[0026] Figure 8 It is a schematic diagram of the structure of the lower side plate of the present invention;

[0027] Fig. 9 It is a schematic diagram of the mounting plate structure of the present invention;

[0028] Fig.10 It is a schematic structural diagram of the positional relationship of the upper plate, the first switching lamination, the first opening assembly, the second switching lamination, the second opening assembly, the third switching lamination, the third opening assembly, the lower plate and the mounting plate of the present invention.

[0029] The markings in the figure are: 1, liquid storage dryer; 101, dryer flange; 2, upper side plate; 201, tenth through hole; 202, liquid inlet; 203, liquid outlet; 204, first pipeline; 205, second pipeline; 206, first protection plate; 207, seventh hollow boss; 3, first reversing lamination; 301, third through hole; 302, fourth through hole; 303, seventh protection plate; 304, third hollow boss; 305, third ventilation slot; 4, first opening assembly; 401, first opening lamination; 402, second opening lamination; 403, first through hole; 404, second through hole; 405, fifth protection plate; 406, sixth protection plate; 407, first hollow boss; 4 08, second hollow boss; 409, second ventilation slot; 410, second ventilation slot; 5, second reversing lamination; 501, fifth through hole; 502, second protective plate; 503, fourth hollow boss; 504, fourth ventilation slot; 6, second opening assembly; 7, third reversing lamination; 701, sixth through hole; 702, first slot; 703, third protective plate; 704, fifth hollow boss; 705, fifth ventilation slot; 8, third opening assembly; 9, lower side plate; 901, seventh through hole; 902, mounting plate; 903, eighth through hole; 904, ninth through hole; 905, inlet flange; 906, outlet flange; 907, fourth protective plate; 908, sixth hollow boss. DETAILED DESCRIPTION

[0030] The specific implementation methods of the present invention are further explained in detail below by describing the embodiments with reference to the accompanying drawings, with the aim of helping those skilled in the art to have a more complete, accurate and in-depth understanding of the inventive concept and technical solution of the present invention and facilitating their implementation.

[0031] like Figures 1 to 10 As shown, an integrated water-cooled condenser includes a liquid storage dryer 1, the inlet and outlet of the liquid storage dryer 1 are connected to the upper plate 2, and the upper plate 2 is connected with the first reversing lamination 3, the first opening assembly 4, the second reversing lamination 5, the second opening assembly 6, the third reversing lamination 7, the third opening assembly 8 and the lower plate 9 from top to bottom. The liquid storage dryer 1 is used to store and dry the refrigerant to ensure the purity and dryness of the refrigerant. The upper plate 2 and the lower plate 9 are used to provide sealing and communication functions, and the upper plate 2 can connect the liquid storage dryer 1 and the first reversing lamination 3. The lower plate 9 is used for sealing and communication, and can be connected with the third opening assembly 8.

[0032] The first reversing lamination 3, the first opening assembly 4, the second reversing lamination 5, the second opening assembly 6, the third reversing lamination 7, and the third opening assembly 8 are used to ensure the correct flow direction of the refrigerant and the coolant.

[0033] The first reversing lamination 3, the second reversing lamination 5 and the third reversing lamination 7 are used to change the flow direction of the fluid to ensure uniform flow and sufficient heat exchange of the refrigerant in the condenser. Different through-hole designs determine the flow path of the fluid.

[0034] like Figure 1 , Figure 4 and Figure 5 As shown, the first opening assembly 4 includes a first opening laminate 401 and a second opening laminate 402, and the first opening laminate 401 and the second opening laminate 402 are arranged alternately. The second opening assembly 6 includes a first opening laminate 401 and a second opening laminate 402, and the first opening laminate 401 and the second opening laminate 402 are arranged alternately. The third opening assembly 8 includes a first opening laminate 401 and a second opening laminate 402, and the first opening laminate 401 and the second opening laminate 402 are arranged alternately. The first opening laminate 401 and the second opening laminate 402 are arranged alternately, which can provide a fluid channel and support the heat exchange process. The first opening laminate 401 has a first ventilation slot 410, and the second opening laminate 402 has a second ventilation slot 409. The first ventilation slot 410 and the second ventilation slot 409 can accelerate air circulation and accelerate the rate of heat exchange.

[0035] The first open laminate 401 and the second open laminate 402 are square structures, which can be better stacked during installation and have good heat exchange efficiency. The first open laminate 401 is provided with first through holes 403 at the four corners, and the second open laminate 402 is provided with second through holes 404 at the four corners. The first through holes 403 and the second through holes 404 can ensure the correct flow direction of the refrigerant and the coolant.

[0036] A first hollow boss 407 is provided at the first through hole 403, and a second hollow boss 408 is provided at the second through hole 404. When the first opening laminate 401 and the second opening laminate 402 are stacked, the first hollow boss 407 will enter the second through hole 404, and the first hollow boss 407 cooperates with the second through hole 404 to ensure that the first opening laminate 401 and the second opening laminate 402 are fixed in position, and at the same time, it can avoid direct contact between the first opening laminate 401 and the second opening laminate 402, which can reduce wear caused by vibration or thermal expansion and contraction. The second hollow boss 408 will enter the first through hole 403, and the second hollow boss 408 cooperates with the first through hole 403. It ensures that the first opening laminate 401 and the second opening laminate 402 are fixed in position, and at the same time, it can avoid direct contact between the first opening laminate 401 and the second opening laminate 402, which can reduce wear caused by vibration or thermal expansion and contraction.

[0037] The first open laminate 401 is provided with a first ventilation slot 410 , and the second open laminate 402 is provided with a second ventilation slot 409 . The first ventilation slot 410 and the second ventilation slot 409 can accelerate air circulation and speed up the heat exchange rate.

[0038] like Figure 3 As shown, the first reversing lamination 3 is a square structure, which can be better stacked during installation and has good heat exchange efficiency. A third through hole 301 is provided at the diagonal part of the first reversing lamination 3, a third hollow boss 304 is provided at the third through hole 301, and a fourth through hole 302 is provided at the other diagonal part of the first reversing lamination 3. The third through hole 301 and the fourth through hole 302 provide inlet and outlet channels for refrigerant and coolant, and ensure the correct flow path of refrigerant and coolant. When stacked, the third hollow boss 304 enters the first through hole 403 to ensure that the position of the first reversing lamination 3 is fixed, and at the same time, it can avoid large-area direct contact between the first opening lamination 401 and the first reversing lamination 3, which can reduce wear caused by vibration or thermal expansion and contraction. A third ventilation slot 305 is also provided on one side of the first reversing lamination 3. The third ventilation slot 305 can speed up air circulation and speed up the rate of heat exchange.

[0039] like Figure 6 As shown, the second reversing lamination 5 is a square structure, which can be better stacked during installation and has good heat exchange efficiency. The second reversing lamination 5 is provided with a fifth through hole 501 at the four corners, and a fourth hollow boss 503 is provided at the fifth through hole 501. The fifth through hole 501 provides an inlet and outlet channel for the refrigerant and the coolant, while ensuring the correct flow path of the refrigerant and the coolant. The first groove 702 is used to change the flow direction of the refrigerant and the coolant. When stacking, the fourth hollow boss 503 will enter the second through hole 404, and the fourth hollow boss 503 cooperates with the second through hole 404 to ensure that the position of the second reversing lamination 5 is fixed, and at the same time, it can avoid direct contact between the second opening lamination 402 and the second reversing lamination 5, which can reduce wear caused by vibration or thermal expansion and contraction. The second reversing lamination 5 is provided with a fourth ventilation slot 504. The fourth ventilation slot 504 can speed up air circulation and speed up the rate of heat exchange.

[0040] like Figure 7As shown, the third reversing lamination 7 is a square structure, which can be better stacked during installation and has good heat exchange efficiency. The third reversing lamination 7 is provided with a sixth through hole 701 at three corners, a fifth hollow boss 704 is provided at the sixth through hole 701, and a first groove 702 is provided at another corner. The sixth through hole 701 provides an inlet and outlet channel for the refrigerant and the coolant, while ensuring the correct flow path of the refrigerant and the coolant. The first groove 702 is used to change the flow direction of the refrigerant and the coolant. When stacking, the fifth hollow boss 704 will enter the second through hole 404, and the fifth hollow boss 704 cooperates with the second through hole 404 to ensure that the position of the third reversing lamination 7 is fixed, and at the same time, it can avoid large-area direct contact between the second opening lamination 402 and the third reversing lamination 7, which can reduce wear caused by vibration or thermal expansion and contraction. The third reversing lamination 7 is provided with a fifth ventilation groove 705, which can speed up air circulation and speed up the rate of heat exchange.

[0041] like Figure 1 and Figure 8 As shown, the lower plate 9 is a square structure, which can be better stacked during installation and has good heat exchange efficiency. A seventh through hole 901 is provided at a corner of the lower plate 9, and a sixth hollow boss 908 protruding inward is provided at the seventh through hole 901. The seventh through hole 901 provides an inlet and outlet channel for the refrigerant and the coolant, while ensuring the correct flow path of the refrigerant and the coolant. When stacked, the sixth hollow boss 908 enters the first through hole 403, and the sixth hollow boss 908 cooperates with the first through hole 403 to ensure that the position of the lower plate 9 is fixed, and at the same time, it can avoid direct contact between the lower plate 9 and the first open lamination 401, which can reduce wear caused by vibration or thermal expansion and contraction.

[0042] The lower plate 9 is also connected to a mounting plate 902, which is a square structure. Two connecting blocks with semicircular cross-sections are respectively arranged on both sides of the mounting plate 902, and the connecting blocks are provided with threaded holes for installation. The square structure can be better stacked during installation, and the heat exchange efficiency is also good. An eighth through hole 903 and a ninth through hole 904 are arranged at a pair of corners of the mounting plate 902, and the eighth through hole 903 and the ninth through hole 904 are used to provide circulation channels for refrigerant and coolant. The eighth through hole 903 and the ninth through hole 904 are respectively connected to an inlet flange 905 and an outlet flange 906. The inlet flange 905 and the outlet flange 906 are used to connect external pipelines to ensure the sealing and stable connection of the condenser.

[0043] like Figure 2As shown, a tenth through hole 201 is formed at a corner of the upper plate 2, a liquid inlet 202 and a liquid outlet 203 are formed at another corner of the upper plate 2, and a seventh hollow boss 207 is provided at the tenth through hole 201 located on one side of the liquid inlet 202. The tenth through hole 201 provides an inlet and outlet channel for the refrigerant and the coolant, and ensures the correct flow path of the refrigerant and the coolant. The receiver-dryer flange 101 can connect the receiver-dryer 1 with the upper plate 2. The seventh hollow boss 207 is used to fix the second pipe 205.

[0044] The inlet and outlet of the receiver-drier 1 are connected with a receiver-drier flange 101, which is in communication with the liquid inlet 202 and the liquid outlet 203. The two ends of one side of the upper plate 2 are connected with a first pipe 204 and a second pipe 205, the first pipe 204 is in communication with the tenth through hole 201 on one side, and the second pipe 205 is in communication with the tenth through hole 201 on the other side. The first pipe 204 and the second pipe 205 are used for the coolant to flow in and out, respectively.

[0045] like Figures 1 to 8 As shown, the upper plate 2, the second switching lamination 5, the third switching lamination 7, the lower plate 9, the first opening lamination 401, the second opening lamination 402 and the first switching lamination 3 are all flat plates, and the first protection plate 206, the second protection plate 502, the third protection plate 703, the fourth protection plate 907, the fifth protection plate 405, the sixth protection plate 406 and the seventh protection plate 303 are arranged around them. The first protection plate 206, the second protection plate 502, the third protection plate 703, the fourth protection plate 907, the fifth protection plate 405, the sixth protection plate 406 and the seventh protection plate 303 are bent flat plates, which are bent from the upper plate 2, the second switching lamination 5, the third switching lamination 7, the lower plate 9, the first opening lamination 401, the second opening lamination 402 and the first switching lamination 3. They can seal the condenser and protect the upper plate 2, the second switching lamination 5, the third switching lamination 7, the lower plate 9, the first opening lamination 401, the second opening lamination 402 and the first switching lamination 3 from being damaged.

[0046] A method for installing an integrated water-cooled condenser is implemented by an integrated water-cooled condenser and has the following characteristics, including the following steps:

[0047] Step S1, firstly place the mounting plate 902 at the bottom, and stack the lower plate 9, the third opening component 8, the third switching lamination 7, the second opening component 6, the second switching lamination 5, the first opening component 4, the first switching lamination 3, and the upper plate 2 in sequence;

[0048] Step S2, installing the liquid receiver-drier 1 on the upper side plate 2, and connecting the liquid receiver-drier flange 101 to the liquid receiver-drier 1 and the upper side plate 2;

[0049] Step S3, installing the first pipe 204, the second pipe 205, the inlet flange 905 and the outlet flange 906. The first pipe 204 and the second pipe 205 are respectively connected to the tenth through hole 201 on different sides, the inlet flange 905 is connected to the eighth through hole 903, and the outlet flange 906 is connected to the ninth through hole 904.

[0050] Functions and Effects of the Embodiments

[0051] The upper plate 2, the first reversing laminate 3, the first opening assembly 4, the second reversing laminate 5, the second opening assembly 6, the third reversing laminate 7, the third opening assembly 8 and the lower plate 9 are stacked in sequence, wherein the first opening assembly 4, the second opening assembly 6 and the third opening assembly 8 are arranged alternately as the first opening laminate 401 and the second opening laminate 402, which can provide a fluid channel and support the heat exchange process. The refrigerant inlet flange 905 enters the condenser from the inlet flange, and the coolant enters from the first pipe 204. The refrigerant and the coolant can ensure the correct flow direction of the refrigerant when passing through the first through hole 403, the second through hole 404, the third through hole 301, the fourth through hole 302, the fifth through hole 501, the sixth through hole 701, the eighth through hole 903, the ninth through hole 904 and the tenth through hole 201. Then the refrigerant will enter the liquid inlet of the liquid storage dryer 1 for drying, and then the refrigerant will enter the liquid outlet of the liquid storage dryer 1 and then flow out through the condenser from the outlet flange 906. After flowing in the condenser, the coolant will flow out through the second pipe 205. The present invention also provides an installation method for an integrated water-cooled condenser, which is implemented by the above-mentioned integrated water-cooled condenser, and includes the following steps: Step S1, firstly placing the installation plate 902 at the bottom, and stacking the lower plate 9, the third opening component 8, the third reversing laminate 7, the second opening component 6, the second reversing laminate 5, the first opening component 4, the first reversing laminate 3, and the upper plate 2 in sequence; Step S2, installing the liquid storage dryer 1 on the upper plate 2, and connecting the liquid storage dryer flange 101 with the liquid storage dryer 1 and the upper plate 2; Step S3, installing the first pipe 204, the second pipe 205, the inlet flange 905 and the outlet flange 906.

[0052] The present invention is described above by way of example in conjunction with the accompanying drawings. Obviously, the specific implementation of the present invention is not limited to the above-mentioned methods. As long as various non-substantial improvements are made using the method concept and technical solution of the present invention; or the above concept and technical solution of the present invention are directly applied to other occasions without improvement, they are all within the protection scope of the present invention.

Claims

1. An integrated water-cooled condenser, characterized in that: The invention comprises a liquid storage drier (1), wherein the inlet and outlet of the liquid storage drier (1) are connected to an upper plate (2), and the upper plate (2) is connected to a first reversing lamination (3), a first opening assembly (4), a second reversing lamination (5), a second opening assembly (6), a third reversing lamination (7), a third opening assembly (8) and a lower plate (9) in sequence from top to bottom.

2. The integrated water-cooled condenser according to claim 1, characterized in that: The first opening component (4), the second opening component (6) and the third opening component (8) have the same structure and all comprise a first opening laminate (401) and a second opening laminate (402), wherein the first opening laminate (401) and the second opening laminate (402) are alternately arranged.

3. The integrated water-cooled condenser according to claim 2, characterized in that: The first opening laminate (401) and the second opening laminate (402) are square structures. The first opening laminate (401) is provided with first through holes (403) at four corners, and the second opening laminate (402) is provided with second through holes (404) at four corners. The first through hole (403) is provided with a first hollow boss (407), and the second through hole (404) is provided with a second hollow boss (408). The first opening laminate (401) is provided with a first ventilation slot (410), and the second opening laminate (402) is provided with a second ventilation slot (409).

4. The integrated water-cooled condenser according to claim 3, characterized in that: The first commutating lamination (3) is of a square structure, a third through hole (301) is provided at a diagonal portion of the first commutating lamination (3), a third hollow boss (304) is provided at the third through hole (301), a fourth through hole (302) is provided at another diagonal portion of the first commutating lamination (3), and a third ventilation slot (305) is also provided on one side of the first commutating lamination (3).

5. The integrated water-cooled condenser according to claim 4, characterized in that: The second switching lamination (5) is of a square structure, the fourth through hole (501) is arranged at the four corners of the second switching lamination (5), the fourth hollow boss (503) is arranged at the fifth through hole (501), and the second switching lamination (5) is provided with a fourth ventilation slot (504).

6. The integrated water-cooled condenser according to claim 5, characterized in that: The third switching lamination (7) is a square structure, and six through holes (701) are arranged at three corners of the third switching lamination (7), and a fifth hollow boss (704) is arranged at the sixth through hole (701). A first groove (702) is opened at another corner of the third switching lamination (7), and a fifth ventilation groove (705) is opened on the third switching lamination (7).

7. The integrated water-cooled condenser according to claim 6, characterized in that: The lower plate (9) is a square structure, a seventh through hole (901) is provided at a corner of the lower plate (9), a sixth hollow boss (908) is provided at the seventh through hole (901), the lower plate (9) is connected to a mounting plate (902), the mounting plate (902) is a square structure, an eighth through hole (903) and a ninth through hole (904) are provided at a corner of the mounting plate (902), the eighth through hole (903) is connected to an inlet flange (905), and the ninth through hole (904) is connected to an outlet flange (906).

8. The integrated water-cooled condenser according to claim 7, characterized in that: A tenth through hole (201) is formed at a pair of corners of the upper plate (2), a liquid inlet (202) and a liquid outlet (203) are formed at another corner of the upper plate (2), a seventh hollow boss (207) is provided at the tenth through hole located on one side of the liquid inlet (202), the inlet and outlet of the liquid storage dryer (1) are connected to a liquid storage dryer flange (101), the liquid storage dryer flange (101) is communicated with the liquid inlet (202) and the liquid outlet (203), a first pipe (204) and a second pipe (205) are connected at both ends of one side of the upper plate (2), the first pipe (204) is communicated with the tenth through hole (201) on one side, and the second pipe (205) is communicated with the tenth through hole (201) on the other side.

9. The integrated water-cooled condenser according to claim 8, characterized in that: The upper plate (2), the second switching lamination (5), the third switching lamination (7), the lower plate (9), the first opening lamination (401), the second opening lamination (402) and the first switching lamination (3) are respectively provided with a first protection plate (206), a second protection plate (502), a third protection plate (703), a fourth protection plate (907), a fifth protection plate (405), a sixth protection plate (406) and a seventh protection plate (303).

10. A method for installing an integrated water-cooled condenser, implemented by an integrated water-cooled condenser according to any one of claims 1 to 9, characterized in that: The following steps are involved: Step S1, firstly, placing the mounting plate (902) at the bottom, and stacking the lower plate (9), the third opening assembly (8), the third switching lamination (7), the second opening assembly (6), the second switching lamination (5), the first opening assembly (4), the first switching lamination (3), and the upper plate (2) in sequence; Step S2, installing the liquid receiver-drier (1) on the upper side plate (2), and connecting the liquid receiver-drier flange (101) to the liquid receiver-drier (1) and the upper side plate (2); Step S3, installing the first pipeline (204), the second pipeline (205), the inlet flange (905) and the outlet flange (906).

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