Integrated water cooled condenser and method of installation

Abstract

The application relates to an integrated water-cooled condenser, which comprises a liquid storage dryer, the inlet and outlet of the liquid storage dryer are connected with an upper edge plate, the upper edge plate is sequentially connected with a first reversing sheet, a first opening assembly, a second reversing sheet, a second opening assembly, a third reversing sheet, a third opening assembly and a lower edge plate from top to bottom; the application provides an integrated water-cooled condenser integrating the liquid storage dryer and the water-cooled condenser; the application also provides an installation method of the integrated water-cooled condenser, which is realized by the integrated water-cooled condenser and is used for helping the user to better use and install the integrated water-cooled condenser.

Description

Technical Field

[0001] This invention belongs to the field of water-cooled condensers. Specifically, this invention relates to an integrated water-cooled condenser and its installation method. Background Technology

[0002] An integrated water-cooled condenser is a highly efficient heat exchange device that pre-assembles and commissions the compressor, heat exchanger, hydraulic module, and electrical control system in the factory to achieve efficient cooling. It leverages the heat dissipation properties of water and its phase change process. In the condenser, high-temperature, high-pressure gaseous refrigerant flows through the condenser 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 its flow and is then recooled by a cooling tower or cooling water tank for reuse.

[0003] Currently, the water-cooled condensers used in new energy electric vehicles are mainly independent types, with the liquid receiver-drier located on the outside and connected via piping. Due to the limited space in the front compartment of the vehicle, the arrangement and location of the water-cooled condenser inside the vehicle are relatively restricted, leading to installation difficulties. Summary of the Invention

[0004] This invention is made to solve the above-mentioned problems, and aims to provide an integrated water-cooled condenser that combines a liquid storage dryer and a water-cooled condenser, with no restrictions on the arrangement and location of the condenser, convenient installation, and a method for installing such an integrated water-cooled condenser.

[0005] To achieve the above objectives, the technical solution adopted by the present invention is as follows:

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

[0007] The first opening component, the second opening component, and the third opening component have the same structure, each including a first opening stack and a second opening stack, with the first opening stack and the second opening stack being alternately arranged.

[0008] The first and second opening stacks are square structures. The first opening stack has a first through hole at each of its four corners, and the second opening stack has a second through hole at each of its four corners. A first hollow boss is provided at the first through hole, and a second hollow boss is provided at the second through hole. The first opening stack has a first ventilation groove, and the second opening stack has a second ventilation groove.

[0009] The first reversing lamination has a square structure. A third through hole is provided at the diagonal part of the first reversing 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 reversing lamination. A third ventilation groove is also provided on one side of the first reversing lamination.

[0010] The second reversing lamination has a square structure. A fifth through hole is provided at each of the four corners of the second reversing lamination. A fourth hollow boss is provided at each of the fifth through holes. A fourth ventilation slot is provided in the second reversing lamination.

[0011] The third reversing lamination has a square structure. A sixth through hole is provided at one of the three corners of the third reversing lamination. A fifth hollow boss is provided at the sixth through hole. A first groove is provided at the other corner of the third reversing lamination. A fifth ventilation groove is provided in the third reversing lamination.

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

[0013] The upper plate has a tenth through hole at one of its diagonal corners, and an inlet and an outlet at the other diagonal corner. A seventh hollow boss is provided at the tenth through hole on one side of the inlet. The inlet and outlet of the liquid storage dryer are connected to a liquid storage dryer flange, which is connected to the inlet and outlet. A first pipe and a second pipe are connected to both ends of one side of the upper plate. The first pipe is connected to the tenth through hole on one side, and the second pipe is connected to the tenth through hole on the other side.

[0014] The upper plate, the second reversing lamination, the third reversing lamination, the lower plate, the first opening lamination, the second opening lamination, and the first reversing lamination are respectively surrounded by 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] This invention also provides an installation method for an integrated water-cooled condenser, implemented using the aforementioned integrated water-cooled condenser, characterized by the following steps:

[0016] Step S1: First, place the mounting plate at the bottom, and then stack the lower plate, the third opening assembly, the third reversing plate, the second opening assembly, the second reversing plate, the first opening assembly, the first reversing plate, and the upper plate in sequence; Step S2: Install the liquid storage dryer on the upper plate, and connect the liquid storage dryer flange to 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 this invention is that by arranging the upper plate, the second reversing lamination, the third reversing lamination, the lower plate, the first open lamination, and the second open lamination in different positions, the refrigerant can be completely subcooled and liquefied, and sufficient heat exchange can be achieved in the water-cooled condenser. Attached Figure Description

[0018] This manual includes the following figures, which illustrate the following:

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

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

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

[0022] Figure 4 This is a schematic diagram of the first open-ended stacked structure of the present invention;

[0023] Figure 5 This is a schematic diagram of the second opening stacked structure of the present invention;

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

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

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

[0027] Figure 9 This is a schematic diagram of the mounting plate structure of the present invention;

[0028] Figure 10 This is a schematic diagram showing the positional relationship between the upper plate, the first reversing lamination, the first opening assembly, the second reversing lamination, the second opening assembly, the third reversing lamination, the third opening assembly, the lower plate, and the mounting plate of the present invention.

[0029] The diagram is labeled as follows: 1. Liquid storage dryer; 101. Dryer flange; 2. Top plate; 201. Tenth through hole; 202. Liquid inlet; 203. Liquid outlet; 204. First pipe; 205. Second pipe; 206. First protective plate; 207. Seventh hollow boss; 3. First reversing plate; 301. Third through hole; 302. Fourth through hole; 303. Seventh protective plate; 304. Third hollow boss; 305. Third ventilation slot; 4. First opening assembly; 401. First opening plate; 402. Second opening plate; 403. First through hole; 404. Second through hole; 405. Fifth protective plate; 406. Sixth protective plate; 407. First hollow boss; 4 08. Second hollow boss; 409. Second ventilation slot; 410. Second ventilation slot; 5. Second reversing plate; 501. Fifth through hole; 502. Second protective plate; 503. Fourth hollow boss; 504. Fourth ventilation slot; 6. Second opening assembly; 7. Third reversing plate; 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 Implementation

[0030] The specific embodiments of the present invention will be further described in detail below with reference to the accompanying drawings, in order to help 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 to facilitate its implementation.

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

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

[0033] The first commutating vane 3, the second commutating vane 5, and the third commutating vane 7 are used to change the fluid flow direction, ensuring uniform refrigerant flow and sufficient heat exchange within the condenser. Different through-hole designs determine the fluid flow path.

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

[0035] The first open-ended laminate 401 and the second open-ended laminate 402 have a square structure. The square structure allows for better stacking during installation and also improves heat exchange efficiency. The first open-ended laminate 401 has a first through hole 403 at each of its four corners, and the second open-ended laminate 402 has a second through hole 404 at each of its four corners. The first through holes 403 and the second through holes 404 ensure the correct flow of refrigerant and 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 open-end laminate 401 and the second open-end laminate 402 are stacked, the first hollow boss 407 will enter the second through hole 404. The first hollow boss 407 and the second through hole 404 cooperate to ensure that the positions of the first open-end laminate 401 and the second open-end laminate 402 are fixed, and at the same time, it can avoid direct contact between the first open-end laminate 401 and the second open-end laminate 402, thereby reducing 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 will cooperate with the first through hole 403. This ensures that the positions of the first open-end laminate 401 and the second open-end laminate 402 are fixed, and at the same time, it can avoid direct contact between the first open-end laminate 401 and the second open-end laminate 402, thereby reducing wear caused by vibration or thermal expansion and contraction.

[0037] The first open plate 401 has a first ventilation slot 410, and the second open plate 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.

[0038] like Figure 3 As shown, the first commutating lamination 3 has a square structure. This square structure allows for better stacking during installation and also improves heat exchange efficiency. A third through-hole 301 is provided at one diagonal of the first commutating lamination 3, and a third hollow boss 304 is provided at the third through-hole 301. A fourth through-hole 302 is provided at the other diagonal of the first commutating lamination 3. The third through-hole 301 and the fourth through-hole 302 provide inlet and outlet channels for refrigerant and coolant, ensuring the correct flow path for both. During stacking, the third hollow boss 304 enters the first through-hole 403, ensuring the position of the first commutating lamination 3 is fixed and preventing large-area direct contact between the first open lamination 401 and the first commutating lamination 3, thus reducing wear caused by vibration or thermal expansion and contraction. A third ventilation slot 305 is also provided on one side of the first commutating lamination 3. The third ventilation slot 305 accelerates airflow and increases the rate of heat exchange.

[0039] like Figure 6 As shown, the second commutating lamination 5 has a square structure, which allows for better stacking during installation and also improves heat exchange efficiency. Fifth through holes 501 are provided at the four corners of the second commutating lamination 5, and fourth hollow bosses 503 are provided at the fifth through holes 501. The fifth through holes 501 provide inlet and outlet channels for refrigerant and coolant, while ensuring the correct flow path for refrigerant and coolant. The first groove 702 is used to change the flow direction of refrigerant and coolant. During stacking, the fourth hollow bosses 503 enter the second through holes 404. The fourth hollow bosses 503 cooperate with the second through holes 404 to ensure the position of the second commutating lamination 5 is fixed, while avoiding direct contact between the second open lamination 402 and the second commutating lamination 5, thus reducing wear caused by vibration or thermal expansion and contraction. The second commutating lamination 5 has a fourth ventilation slot 504. The fourth ventilation slot 504 can accelerate air circulation and increase the rate of heat exchange.

[0040] like Figure 7As shown, the third commutation lamination 7 has a square structure, which allows for better stacking during installation and also improves heat exchange efficiency. The third commutation lamination 7 has a sixth through-hole 701 at three corners, with a fifth hollow boss 704 at each of the six through-holes 701, and a first groove 702 at the other corner. The sixth through-hole 701 provides inlet and outlet channels for refrigerant and coolant, ensuring their correct flow paths. The first groove 702 is used to change the flow direction of the refrigerant and coolant. During stacking, the fifth hollow boss 704 enters the second through-hole 404. The fifth hollow boss 704 cooperates with the second through-hole 404 to ensure the position of the third commutation lamination 7 is fixed, while avoiding large-area direct contact between the second open lamination 402 and the third commutation lamination 7, thus reducing wear caused by vibration or thermal expansion and contraction. The third commutation lamination 7 has a fifth ventilation slot 705, which accelerates airflow and increases the rate of heat exchange.

[0041] like Figure 1 and Figure 8 As shown, the lower plate 9 has a square structure, which allows for better stacking during installation and also improves heat exchange efficiency. A seventh through-hole 901 is provided at one of the corners of the lower plate 9, and a sixth hollow boss 908 protrudes inward at each of the seventh through-holes 901. The seventh through-hole 901 provides an inlet and outlet channel for refrigerant and coolant, ensuring the correct flow path for both. During stacking, the sixth hollow boss 908 enters the first through-hole 403. The engagement of the sixth hollow boss 908 with the first through-hole 403 ensures the lower plate 9 is fixed in position and prevents direct contact between the lower plate 9 and the first open lamination 401, reducing wear caused by vibration or thermal expansion and contraction.

[0042] The lower plate 9 is also connected to a mounting plate 902. The mounting plate 902 has a square structure, with two semi-circular connecting blocks on each side. These connecting blocks have threaded holes for installation. The square structure allows for better stacking during installation and also improves heat exchange efficiency. At opposite corners of the mounting plate 902 are an eighth through hole 903 and a ninth through hole 904, providing passageways 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 pipes, ensuring the condenser's sealing and stable connection.

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

[0044] The liquid receiver dryer 1 has a liquid receiver dryer flange 101 connected to its inlet and outlet. The liquid receiver dryer flange 101 is connected to the liquid inlet 202 and the liquid outlet 203. The upper plate 2 has a first pipe 204 and a second pipe 205 connected to both ends on one side. The first pipe 204 is connected to the tenth through hole 201 on one side, and the second pipe 205 is connected to the tenth through hole 201 on the other side. The first pipe 204 and the second pipe 205 are used for the inflow and outflow of coolant, respectively.

[0045] like Figures 1 to 8 As shown, the upper plate 2, the second reversing plate 5, the third reversing plate 7, the lower plate 9, the first open plate 401, the second open plate 402, and the first reversing plate 3 are all flat plates, and are surrounded by a first protective plate 206, a second protective plate 502, a third protective plate 703, a fourth protective plate 907, a fifth protective plate 405, a sixth protective plate 406, and a seventh protective plate 303. The first protective plate 206, the second protective plate 502, the third protective plate 703, the fourth protective plate 907, the fifth protective plate 405, the sixth protective plate 406, and the seventh protective plate 303 are bent flat plates, which are bent out of the four sides of the upper plate 2, the second reversing plate 5, the third reversing plate 7, the lower plate 9, the first open plate 401, the second open plate 402, and the first reversing plate 3, respectively. They can seal the condenser and protect the upper plate 2, the second commutation lamination 5, the third commutation lamination 7, the lower plate 9, the first open lamination 401, the second open lamination 402, and the first commutation lamination 3 from damage.

[0046] An installation method for an integrated water-cooled condenser, characterized by the following steps:

[0047] Step S1: First, place the mounting plate 902 at the bottom, and then stack the lower plate 9, the third opening assembly 8, the third reversing plate 7, the second opening assembly 6, the second reversing plate 5, the first opening assembly 4, the first reversing plate 3, and the upper plate 2 in sequence.

[0048] Step S2: Install the liquid storage dryer 1 on the upper side plate 2, and connect the liquid storage dryer flange 101 to the liquid storage dryer 1 and the upper side plate 2.

[0049] Step S3: Install 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 which is not on the same side. 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] The role and effect of the embodiments

[0051] The upper plate 2, 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 are stacked sequentially. The first opening assembly 4, the second opening assembly 6, and the third opening assembly 8 are formed by alternating first opening lamination 401 and second opening lamination 402, providing a fluid passage and supporting the heat exchange process. The refrigerant enters the condenser through the refrigerant inlet flange 905, and the coolant enters through the first pipe 204. The refrigerant and coolant flow 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, ensuring the correct flow direction of the refrigerant. The refrigerant then enters the liquid receiver dryer 1 for drying, and then flows out through the condenser through the liquid receiver dryer 1 outlet and the condenser outlet flange 906. After flowing in the condenser, the coolant flows out through the second pipe 205. This invention also provides an installation method for an integrated water-cooled condenser, implemented using the aforementioned integrated water-cooled condenser, comprising the following steps: Step S1, firstly, placing the mounting plate 902 at the bottom, and then sequentially stacking the lower side plate 9, the third opening assembly 8, the third reversing plate 7, the second opening assembly 6, the second reversing plate 5, the first opening assembly 4, the first reversing plate 3, and the upper side plate 2; Step S2, installing the liquid receiver dryer 1 on the upper side plate 2, with the liquid receiver dryer flange 101 connected to the liquid receiver dryer 1 and the upper side 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 has been described above by way of example with reference to the accompanying drawings. Obviously, the specific implementation of the present invention is not limited to the above-described manner. Any non-substantial improvements made using the inventive concept and technical solution; or the direct application of the inventive concept and technical solution to other situations without modification, are all within the protection scope of the present invention.

Claims

1. An integrated water cooled condenser characterized by: The utility model provides a kind of liquid storage dryer, it includes the liquid storage dryer (1), the upper edge plate (2) is communicated with the inlet and outlet of the liquid storage dryer (1), the upper edge plate (2) is sequentially connected with first reversing laminated sheet (3), first opening assembly (4), second reversing laminated sheet (5), second opening assembly (6), third reversing laminated sheet (7), third opening assembly (8) and lower edge plate (9) from top to bottom;The first reversing laminated sheet (3) is square structure, third through-hole (301) is provided at the diagonal portion of first reversing laminated sheet (3), third hollow boss (304) is provided at third through-hole (301), fourth through-hole (302) is provided at another diagonal portion of first reversing laminated sheet (3), third ventilation groove (305) is further provided on the side of first reversing laminated sheet (3);The third reversing laminated sheet (7) is square structure, sixth through-hole (701) is provided at three corner portions of third reversing laminated sheet (7), fifth hollow boss (704) is provided at sixth through-hole (701), first slot (702) is opened at another corner portion of third reversing laminated sheet (7), fifth ventilation groove (705) is opened in third reversing laminated sheet (7);The lower edge plate (9) is square structure, seventh through-hole (901) is provided at a diagonal portion of lower edge plate (9), sixth hollow boss (908) is provided at seventh through-hole (901), mounting plate (902) is connected with lower edge plate (9), the mounting plate (902) is square structure, eighth through-hole (903) and ninth through-hole (904) are provided at a diagonal portion of mounting plate (902), inlet flange (905) is connected with eighth through-hole (903), outlet flange (906) is connected with ninth through-hole (904).

2. An integrated water cooled condenser according to claim 1, wherein: The first opening assembly (4), the second opening assembly (6) and the third opening assembly (8) are the same structure, and all include first opening laminated sheet (401) and second opening laminated sheet (402), the first opening laminated sheet (401) and the second opening laminated sheet (402) are alternately arranged.

3. An integrated water cooled condenser according to claim 2, wherein: The first opening laminated sheet (401) and the second opening laminated sheet (402) are square structure, the first opening laminated sheet (401) is provided with first through-hole (403) at four corner portions, the second opening laminated sheet (402) is provided with second through-hole (404) at four corner portions, first hollow boss (407) is provided at first through-hole (403), second hollow boss (408) is provided at second through-hole (404), the first opening laminated sheet (401) is opened with first ventilation groove (410), and the second opening laminated sheet (402) is opened with second ventilation groove (409).

4. An integrated water cooled condenser as claimed in claim 1, wherein: The second reversing laminated sheet (5) is square structure, fifth through-hole (501) is provided at four corner portions of the second reversing laminated sheet (5), fourth hollow boss (503) is provided at fifth through-hole (501), the second reversing laminated sheet (5) is opened with fourth ventilation groove (504).

5. An integrated water cooled condenser as claimed in claim 1, wherein: The upper edge plate (2) is provided with a tenth through hole (201) at one corner, and is provided with a liquid inlet (202) and a liquid outlet (203) at another corner, a seventh hollow boss (207) is arranged at the tenth through hole on one side of the liquid inlet (202), the liquid storage dryer (1) is connected with a liquid storage dryer flange (101) at the inlet and the outlet, the liquid storage dryer flange (101) is communicated with the liquid inlet (202) and the liquid outlet (203), and the upper edge plate (2) is connected with a first pipeline (204) and a second pipeline (205) at two ends on one side, the first pipeline (204) is communicated with the tenth through hole (201) on one side, and the second pipeline (205) is communicated with the tenth through hole (201) on the other side.

6. An integrated water cooled condenser as claimed in claim 2, wherein: The upper edge plate (2), the second reversing sheet (5), the third reversing sheet (7), the lower edge plate (9), the first opening sheet (401), the second opening sheet (402) and the first reversing sheet (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).

7. A method of installing an integrated water cooled condenser, by means of an integrated water cooled condenser according to any one of claims 5 to 6, characterized in that, The method comprises the following steps: S1, first, place the mounting plate (902) at the bottom, and stack the lower edge plate (9), the third opening assembly (8), the third reversing sheet (7), the second opening assembly (6), the second reversing sheet (5), the first opening assembly (4), the first reversing sheet (3) and the upper edge plate (2) in sequence; S2, install the liquid storage dryer (1) on the upper edge plate (2), and connect the liquid storage dryer flange (101) with the liquid storage dryer (1) and the upper edge plate (2); S3, install the first pipeline (204), the second pipeline (205), the inlet flange (905) and the outlet flange (906).

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