Runner plate and integrated assembly

Abstract

The embodiment of the invention discloses a runner plate and an integrated assembly, the runner plate comprises a first sub-part and a second sub-part, the first sub-part and the second sub-part are fixedly connected or in limited connection, the runner plate is provided with a first runner and a second runner, the first runner is located in the first sub-part, the second runner is located in the second sub-part, and the first sub-part and the second sub-part are in fixed connection or limited connection. The first flow channel is communicated with the second flow channel, a first direction is defined, the first direction is perpendicular to the extending direction of the first sub-part, at least part of the second sub-part is located on one side of the first sub-part in the first direction, at least part of the second flow channel is located on one side of the first sub-part, and the first direction is perpendicular to the extending direction of the second sub-part. According to the embodiment of the invention, the size of the runner plate in the extension direction of the first sub-part or the extension direction of the second sub-part is at least shortened, so that the runner plate and the integrated assembly are compact in structure.

Description

Technical Field

[0001] The present invention relates to the field of thermal management technology, and in particular to a flow channel plate and an integrated component. Background Art

[0002] Thermal management components, such as water pumps and water valves, are installed on the flow channel plate. When there are a large number of flow channels or a large number of thermal management components, the paving area of ​​the flow channel plate is expanded, or the number of layers of the flow channels is increased, so that the structure of the flow channel plate and the integrated components is not compact enough. Summary of the invention

[0003] The purpose of the present application is to provide a flow channel plate and an integrated assembly with a compact structure.

[0004] One of the embodiments of the present application discloses a flow channel plate, which includes a first sub-section and a second sub-section, wherein the first sub-section is fixedly connected or limit-connected to the second sub-section, and the flow channel plate has a first flow channel and a second flow channel, wherein the first flow channel is located in the first sub-section, and the second flow channel is located in the second sub-section, and the first flow channel is connected to the second flow channel to define a first direction, wherein the first direction is perpendicular to an extension direction of the first sub-section, and along the first direction, at least a portion of the second sub-section is located on one side of the first sub-section, and at least a portion of the second flow channel is located on one side of the first sub-section.

[0005] One of the embodiments of the present application discloses an integrated component, which includes the above-mentioned flow channel plate and a thermal management component, the thermal management component includes at least one of a water tank, a pump, a valve, and a sensor, the flow channel plate has a mounting portion, and the thermal management component is mounted on the mounting portion.

[0006] According to the flow channel plate and integrated component provided in the embodiments of the present application, the flow channel plate includes a first sub-section and a second sub-section that are fixedly connected or limit-connected, the first flow channel is located in the first sub-section, the second flow channel is located in the second sub-section, and along the extension direction perpendicular to the first sub-section, at least part of the second sub-section and the second flow channel are located on one side of the first sub-section, at least shortening the size of the flow channel plate in the extension direction of the first sub-section or the extension direction of the second sub-section, so that the flow channel plate and the integrated component have a compact structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0007] Figure 1 is an overall schematic diagram of a flow channel plate provided by an embodiment of the present invention;

[0008] Figure 2 It is a schematic diagram of the structure of a main flow channel plate of a flow channel plate provided by an embodiment of the present invention;

[0009] Figure 3 This is a schematic diagram of the structure of the second plate body of the flow channel plate provided by an embodiment of the present invention;

[0010] Figure 4 It is a schematic diagram of the structure of various components of an L-shaped flow channel plate provided by an embodiment of the present invention;

[0011] Figure 5 It is a schematic diagram of the structure of various components of a flow channel plate provided by an embodiment of the present invention;

[0012] Figure 6 is a schematic structural diagram of various components of a flow channel plate provided by an embodiment of the present invention from another perspective;

[0013] Figure 7 It is a schematic diagram of the positions of various installation parts of a flow channel plate provided by an embodiment of the present invention;

[0014] Figure 8 It is a schematic diagram of the positions of various external interfaces of a flow channel plate provided by an embodiment of the present invention;

[0015] Fig. 9 It is a schematic diagram of the positions of various external interfaces and flow channels of a flow channel plate provided by an embodiment of the present invention;

[0016] Fig.10 This is a schematic diagram of the connection relationship between the various external interfaces of the flow channel plate provided by an embodiment of the present invention;

[0017] Figure numerals: 1, first sub-section; 2, second sub-section; 11, first plate body; 11a, first supporting portion; 11b, first connecting portion; 12, second plate body; 12a, second supporting portion; 12b, second connecting portion; 10, first flow channel; 10a, first flow channel section; 10b, first connecting section; 101, first sub-flow channel section; 102, second sub-flow channel section; 21, first sub-plate; 211, first sub-sub-plate; 212, second sub-sub-plate; 22, second sub-plate; 221, third sub-sub-plate; 222, fourth sub-sub-plate; 20, second flow channel; 20a, second flow channel section; 20b, second connecting section; 201, third sub-flow channel section; 202, fourth sub-flow channel section; a, connecting surface; 3, reinforcing ribs; 4, mounting portion; 40, side wall surface; 41, expansion kettle; 42, pump mounting portion; 42', mounting cavity ;421, pump suction chamber;422, through hole;423, volute chamber;424, reinforcement part;424', channel;p1, first pump mounting part;p2, second pump mounting part;43, valve mounting part;44, sensor mounting part;T1, first sensor mounting part;T2, second sensor mounting part;T3, third sensor mounting part;T4, fourth sensor mounting part;5, external tube;A, first external tube;B, second external tube;C, third external tube;D, fourth external tube;E, fifth external tube;F, sixth external tube;H, seventh external tube;K, eighth external tube;M, ninth external tube;N, tenth external tube;P, eleventh external tube;Q, twelfth external tube;V1, valve port one;V2, valve port two;V3, valve port three;V4, valve port four;V5, valve port five;V6, valve port six;S, first direction. DETAILED DESCRIPTION

[0018] The features and exemplary embodiments of various aspects of the present invention will be described below. In order to make the purpose, technical solutions and advantages of the present invention more clear, the present invention will be further described below in conjunction with the accompanying drawings and specific embodiments. In this article, relational terms such as "first" and "second" are only used to distinguish one component with the same name from another, and do not necessarily require or imply any such actual relationship or order between these components.

[0019] See also Figure 1 One embodiment of the present invention provides a flow channel plate that can be used in a thermal management system of a vehicle, specifically, it can be used in the water side of the thermal management system, or the working medium passing through the flow channel plate is a coolant, and of course, the working medium passing through the flow channel plate can also be a refrigerant, which is described in detail below.

[0020] See also Figure 1 and Figure 2The flow channel plate includes a first sub-section 1 and a second sub-section 2, which are fixedly or limit-connected, and the flow channel plate has a first flow channel 10 and a second flow channel 20, the first flow channel 10 is located in the first sub-section 1, and the second flow channel 20 is located in the second sub-section 2, the first flow channel 10 is connected with the second flow channel 20, and a first direction S is defined, the first direction S is perpendicular to the extension direction of the first sub-section 1, along the first direction S, at least part of the second sub-section 2 is located on one side of the first sub-section 1, at least part of the second flow channel 20 is located on one side of the first sub-section 1, and the first sub-section 1 and the second sub-section 2 are intersected in space, the vertical intersection can be roughly T-shaped or L-shaped, and the non-vertical intersection can be V-shaped or "human" shaped, and multiple layers of flow channels can be arranged on the first sub-section 1 and the second sub-section 2. This arrangement shortens the size of the flow channel plate in the extension direction of the first sub-section or the second sub-section, reduces the area that the flow channel plate needs to be laid, and makes the flow channel plate and the flow channel more concentrated and occupies less space.

[0021] See also Figure 1 and Figure 2 In some embodiments, the first sub-section 1 includes a first plate body 11 and a first sub-plate 21, and the second sub-section 2 includes a second plate body 12 and a second sub-plate 22. It should be noted that the first plate body 11, the first sub-plate 21, the second plate body 12 and the second sub-plate 22 are not limited to plate-shaped components, and can be set to prismatic, semi-cylindrical and other shaped components as required. The first plate body 11 and the second plate body 12 are fixedly or position-limitedly connected. Preferably, the first plate body 11 and the second plate body 12 are fixedly connected by integral molding or hot plate welding. The first plate body 11 and the second plate body 12 each have at least one connecting surface a for connecting with the first sub-plate 21 and the second sub-plate 22. The first sub-plate 21 and the first plate body 11 The connection surface a of the second sub-plate 22 and the second plate body 12 is sealed. Since the number of connection surfaces a on the first plate body 11 and the second plate body 12 is not limited to one, it can be seen that the first flow channel 10 and the second flow channel 20 are not limited to only one place, wherein the first flow channel 10 includes a flow channel formed at the connection surface a between the first sub-plate 21 and the first plate body 11 and a flow channel formed between the multiple first sub-plates 21 connected to the first plate body 11 and stacked. Similarly, the second flow channel 20 includes a flow channel formed at the connection surface a between the second sub-plate 22 and the second plate body 12 and a flow channel formed between the multiple second sub-plates 22 connected to the second plate body 12 and stacked.

[0022] See also Figure 2 and Figure 3The first flow channel 10 located on the first plate body 11 is connected to the second flow channel 20 located on the second plate body 12, and the connection method is as follows: the first plate body 11 includes a first supporting portion 11a and a first connecting portion 11b, the first connecting portion 11b extends toward the second plate body 12 relative to the first supporting portion 11a, the second plate body 12 includes a second supporting portion 12a and a second connecting portion 12b, the second connecting portion 12b is close to the first plate body 11 relative to the second supporting portion 12a, the first flow channel 10 includes a first flow channel section 10a and a first connecting section 10b, and the second flow channel 20 includes a first connecting portion 11b. The second flow channel section 20a and the second connecting section 20b, the first supporting portion 11a and the first sub-plate 21 are sealed and connected to form at least a part of the first flow channel section 10a, the second supporting portion 12a and the second sub-plate 22 are sealed and connected to form at least a part of the second flow channel section 20a, the first connecting section 10b and the second connecting section 20b are respectively located at the first connecting portion 11b and the second connecting portion 12b, the first connecting section 10b is connected to the first flow channel section 10a, the second connecting section 20b is connected to the second flow channel section 20a, and the first connecting section 10b is connected to the second connecting section 20b.

[0023] In order to adapt to product requirements and enhance the connection strength between the first plate body 11 and the second plate body 12, along the first direction S, the second support portion 12a is located on both sides of the second connecting portion 12b, that is, the end of the first plate body 11 is connected to the middle of the second plate body 12. In this embodiment, the arrangement of the flow channels in the first sub-section 1 and the second sub-section 2 can be selected, and the second connecting section 20b located at the second connecting portion 12b passes through the second plate body 12 and is connected to the first connecting section 10b.

[0024] See also Figure 2 , Figure 3 and Figure 7 In order to further enhance the connection strength between the first plate body 11 and the second plate body 12, in this embodiment, along the first direction S, the thickness of the first connection part 11b is greater than the first support part 11a, the first connection part 11b and the second connection part 12b are fixedly connected or are an integral structure, and the flow channel plate has a reinforcing rib 3, and the reinforcing rib 3 is fixedly connected to the first connection part 11b and the second connection part 12b. Among them, between the first support part and the first connection part, in order to meet the requirements of hot plate welding, an inclined surface is provided, the inclined surface extends from the first connection part to the first support part, and the inclined surface is a part of the connection surface a, which facilitates the sealing connection between the first sub-plate 21 and the connection surface a on the first plate body 11.

[0025] In some embodiments, Figure 2As shown, for the convenience of processing, the first plate body 11 and the second plate body 12 are an integral structure, so that the first sub-section 1 and the second sub-section 2 are roughly T-shaped; the first plate body 11 and the second plate body 12 are vertically arranged, preferably, the first plate body 11 and the second plate body 12 are an integral structure, and the above vertical arrangement means that the first plate body 11 and the second plate body 12 are arranged at an angle of eighty to one hundred degrees. Through the arrangement of the above embodiment, the first sub-section 1 and the second sub-section 2 are roughly T-shaped. Compared with the traditional flat-laid flow channel plate arrangement, the second sub-section 2 extends along the thickness direction of the first sub-section 1 (the first direction S), reducing the flat area of ​​the flow channel plate. In addition, the length dimension of the second sub-section 2 in the extension direction does not exceed the thickness of the first sub-section 1 after the thermal management component is installed, so that the flow channel plate and the flow channel are more concentrated, the structure is more compact, and the space occupied is smaller. The above-mentioned embodiment only designs the flow channel plate and the flow channel of two sub-sections. In other embodiments, the flow channel plate can also include more sub-sections, such as adding a third sub-section, and a connecting surface is also provided on the third sub-section for sealing the third sub-plate and arranging the flow channel. At this time, the multiple sub-sections can present an I-shape, a Z-shape, a cross shape or a triangle shape in space.

[0026] refer to Figure 2 and Figure 3 , with respect to the position of the connection surface a on the second plate body 12, the connection surface a can be located on the side of the second plate body 12 away from the first plate body 11, at which time the second sub-plate 22 is arranged in a direction away from the first plate body 11, and the second connection segment 20b located at the second connection portion 12b penetrates the second plate body 12 and is connected to the first connection segment 10b located at the first connection portion 11b, thereby connecting the first flow channel segment 10a and the second flow channel segment 20a; the connection surface a can also be located on the side of the second plate body 12 close to the first plate body 11, at which time the second sub-plate 22 is arranged in a direction close to the first plate body 11, and the second connection segment 20b located at the second connection portion 12b is connected to the first connection segment 10b of the first connection portion 11b and forms a bend to connect the first flow channel segment 10a and the second flow channel segment 20a; in addition to the above two methods, Figure 4 As shown, if the connection between the first sub-section 1 and the second sub-section 2 forms an L shape, even if the second flow channel 20 is located on the side of the second plate body 12 away from the first plate body 11, the first flow channel section 10a and the second flow channel section 20a can also be connected through the first connecting section 10b and the second connecting section 20b that are bent and connected at the edges.

[0027] refer to Figure 5The first sub-plate 21 and the second sub-plate 22 are not limited to one, and the connecting surface a can be set on both sides of the first plate body 11, and the first sub-plate 21 is respectively sealed. That is, the first flow channel 10 is set on both sides of the first plate body 11. In this embodiment, the first sub-plate 21 includes a first sub-sub-plate 211 and a second sub-sub-plate 212. The first flow channel section 10a includes a first sub-flow channel section 101 and a second sub-flow channel section 102. The first sub-sub-plate 211 and the second sub-sub-plate 212 are respectively fixed to the two connecting surfaces a of the first plate body 11 and sealed and connected. The wall of the first sub-flow channel section 101 is located on the first sub-sub-plate 211 and the first plate body 11. Specifically, the first sub-sub-plate 211 and the first plate body At least one of the second sub-plate 212 and the first plate body 11 has a groove, the first sub-channel section 101 is located in the groove in the first sub-plate 211 and the first plate body 11, and the wall forming the second sub-channel section 102 is located in the second sub-plate 212 and the first plate body 11. Specifically, at least one of the second sub-plate 212 and the first plate body 11 has a groove, and the second sub-channel section 102 is located in the groove in the second sub-plate 212 and the first plate body 11. Similarly, connecting surfaces a can be provided on both sides of the second plate body 12 away from and close to the first plate body 11, and the second sub-plates 22 are respectively sealed and provided, that is, the second channel 20 is provided on both sides of the second plate body 12 away from and close to the first plate body 11. The specific method is as described above and will not be repeated here. Taking the connection between the second sub-plate 22 and the second plate body 12 as an example, in addition to the above, the second sub-plate 22 is directly fixed and sealed to the second plate body 12 at the connection surface a, multiple second sub-plates 22 can also be provided, and they are stacked and fixed and sealed in sequence, at least one of the two adjacent second sub-plates 22 has a groove, and after the two second sub-plates 22 are fixed and sealed, a part of the second flow channel 20 is formed at the groove, and then one of the two ends of the multiple second sub-plates 22 is fixedly connected to the connection surface of the second plate body 12, and a part of the second flow channel 20 is also formed at the connection surface; specifically, in this embodiment, the second sub-plate 22 connected to the second plate body 12 includes a third The second flow channel section 20a includes a third sub-flow channel section 201 and a fourth sub-flow channel section 202. The third sub-flow channel section 20a includes a third sub-flow channel section 201 and a fourth sub-flow channel section 202. The connecting surface of the third sub-flow channel section 201 and the second plate body 12 is fixedly and sealedly connected, forming a wall of the third sub-flow channel section 201 located between the third sub-flow channel section 201 and the second plate body 12. The third sub-flow channel section 201 is fixedly and sealedly connected to the fourth sub-flow channel section 202 on the side away from the second plate body 12, forming a wall of the fourth sub-flow channel section 202 located between the third sub-flow channel section 201 and the fourth sub-flow channel section 202. Similarly, the connection between the first sub-flow channel section 21 and the first plate body 11 can also be achieved in the above manner, which will not be repeated here.

[0028] refer to Figure 2 and Figure 4In the present embodiment, the first flow channel 10 and the second flow channel 20 are connected in the following manner: the first sub-flow channel segment 101 and the second sub-flow channel segment 102 are connected, specifically, they can be connected through a flow channel that is inclined and passes through the first plate body 11; of course, the first sub-flow channel segment 101 and the second sub-flow channel segment 102 can also be selected not to be connected or connected in other ways in other embodiments; part of the second connecting segment 20b passes through the second plate body 12 to connect the first sub-flow channel segment 101 and the third sub-flow channel segment 201, and part of the second connecting segment 20b passes through the second plate body 12 and the third sub-sub-plate 221, and connects the first sub-flow channel segment 101 and the fourth sub-flow channel segment 202. Of course, in other embodiments, the second sub-flow channel segment 102 can also be connected with the third sub-flow channel segment 201 and the fourth sub-flow channel segment 202 in the above manner.

[0029] One of the embodiments of the present invention further provides an integrated component, which includes the flow channel plate and the thermal management component in one of the above embodiments, the thermal management component includes at least one of an expansion kettle, a pump, a valve, and a sensor, the flow channel plate has a mounting portion 4, and the thermal management component is mounted on the mounting portion 4.

[0030] In one embodiment, the mounting portion 4 is located at at least one of the first plate body 11 , the first sub-plate 21 connected to the first plate body 11 , the second plate body 12 , and the second sub-plate 22 connected to the second plate body 12 . Specifically, a part of the mounting portion 4 is located on the first plate body 11 and / or the first sub-plate 21 connected to the first plate body 11, and is connected to the first flow channel 10, and the other part of the mounting portion 4 is located on the second plate body 12 and / or the second sub-plate 22 connected to the second plate body 12, and is connected to the second flow channel 20. The first flow channel 10 is connected to the second flow channel 20. Therefore, a part of the mounting portion 4 located near the first plate body 11 is connected to the mounting portion 4 located near the second plate body 12 through the first flow channel 10 and the second flow channel 20. Compared with the stacked arrangement of flow channels in traditional flow channels, the flow channels are arranged in a space of one level, and the working medium flowing in the two thermal management components needs to bypass a long distance. When there are too many flow channel demands, the paving area of ​​the flow channel plate can only be expanded, which occupies a large space. The flow channels in the embodiment of the present invention are arranged in a three-dimensional space, which is equivalent to folding the flow channel plate. The internal flow channel is also folded into two connected flow channels, which reduces the paving area of ​​the flow channel plate, makes the structure more compact, and greatly saves the space occupied by the flow channel plate.

[0031] See also Figure 5 , Figure 6 and Figure 7The integrated assembly includes an expansion kettle 41, at least a portion of which is an integral structure with the flow channel plate, and a pot cavity of the expansion kettle 41 is communicated with the first flow channel 10 or the second flow channel 20. The mounting portion 4 includes at least one of a pump mounting portion 42, a valve mounting portion 43, and a sensor mounting portion 44, and the mounting portion 4 is an integral structure with the first plate body 11, the second plate body 12, the first sub-plate 21 or the second sub-plate 22; in this embodiment, the pot cavity of the expansion kettle is communicated with the first sub-flow channel section 101. The pump mounting portion 42 has a mounting cavity 42', which includes a pump suction chamber 421 and at least a portion of a volute chamber 423. The housing forming the pump suction chamber 421 and the housing forming at least a portion of the volute chamber 423 are integrally formed with the first plate body 11. The pump mounting portion 42 has a through hole 422, and the mounting cavity 42' is connected to the first flow channel 10 through the through hole 422. Specifically, in this embodiment, the first plate body 11 has two pump mounting portions 42, namely, a first pump mounting portion p1 and a second pump mounting portion p2. The pump suction chambers 421 of the two pump mounting portions are both connected to the first sub-flow channel section 101 through the through hole 422. Figure 7 , the flow channel plate has a side wall surface 40, at least part of the mounting portion 4 is located on the side wall surface 40, the pump mounting portion 42 is located on the side wall surface 40, the flow channel plate has a reinforcing portion 424, the reinforcing portion 424 is fixedly connected to the pump mounting portion 42 or is an integral structure, the reinforcing portion has a channel 424', the channel 424' connects the mounting cavity 42' with the first flow channel 10 or the second flow channel 20, the reinforcing portion 424 protrudes relative to the side wall surface 40, and the reinforcing portion 424 extends from the first sub-portion 1 to the second sub-portion 2. In this embodiment, the side wall surface 40 is located on one side of the first plate body 11, the first plate body 11 and the pump mounting portion 42 are integrally structured, the reinforcing portion 424 extends from the side wall surface 40 located on the first plate body 11 to the connection between the first plate body 11 and the second plate body 12, and the reinforcing portion 424 is arranged in parallel with the reinforcing rib 3 to strengthen and fix the first plate body 11 and the second plate body 12.

[0032] In this embodiment, the first sub-section 1 includes a first plate body 11 and a first sub-plate 211, the first sub-plate 211 is sealed and arranged on one side of the first plate body 11, at least a part of the expansion kettle 41 is an integral structure with the first sub-plate 211, and the kettle cavity of the expansion kettle 41 is communicated with the first flow channel 10; the side wall surface 40 is located on the other side of the first plate body 11, on the side wall surface 40, the pump mounting portion 42 is an integral structure with the first plate body 11, and the mounting cavity 42' of the pump mounting portion 42 is communicated with the first flow channel 10; the second sub-section 2 includes a second plate body 12, a third sub-plate 221 and a fourth sub-plate 222, the third sub-plate 221 is sealed and arranged on the side of the second plate body 12 away from the first plate body 11, one side of the fourth sub-plate 222 is sealed and arranged with the third sub-plate 221, and the other side of the fourth sub-plate 222 has a valve mounting portion 43, and the valve channel of the valve mounting portion 43 is communicated with the second flow channel 20.

[0033] See also Figure 7 The flow channel plate also includes a plurality of external tubes 5. As for a single external tube 5, the external tube 5 is an integral structure with the first plate body 11, the second plate body 12, the first sub-plate 21 or the second sub-plate 22. In this embodiment, the axis of the external tube 5 located in the first sub-section 1 is perpendicular to the side wall surface 40 of the first plate body 11. The vertical range here is that the axis of the external tube 5 and the side wall surface 40 form an angle of 80 to 100 degrees. (As shown in FIG. Figure 8 , the first external tube A, the second external tube B, the third external tube C, the fourth external tube D, the fifth external tube E, the sixth external tube F, the seventh external tube H, and the eighth external tube K are all arranged in this way), the axis of the external tube 5 located in the second sub-section 2 is parallel or tends to be parallel to the connecting surface of the second plate body 12, and is parallel or tends to be parallel to the connecting surface a of the first plate body 11 (such as Figure 8 In the embodiment, the ninth external tube M, the tenth external tube N, the eleventh external tube P, and the twelfth external tube Q are all arranged in this manner). Of course, in other embodiments, for the convenience of arrangement, the external tube 5 can be arranged on the second plate body 12 or the second sub-plate 22 connected to the second plate body 12 (not shown in the drawings, but it can be imagined that, for example, Figure 8 In the embodiment, the eleventh external pipe P can be arranged at the third sensor mounting portion T3, and its axis is perpendicular to the connection surface of the second plate body 12. In addition, the third sensor mounting portion T3 is arranged at the eleventh external pipe P, or the third sensor mounting portion T3 is arranged on the second plate body 12 near the side of the first plate body 11 and connected to the second flow channel 20). The arrangement position and direction of the sensor mounting portion 44 in the flow channel plate are roughly the same as those of the above-mentioned external pipe 5, which will not be repeated here. The external pipe 5 is used to connect other thermal management components in the thermal management system. These thermal management components form multiple thermal management circuits with the flow channel plate and the thermal management components installed thereon. Other thermal management components include but are not limited to compressors, evaporators, condensers, motor radiators, battery coolers, battery heaters, water-cooled condensers, etc.

[0034] See also Figure 8 , Fig. 9 and Fig.10 , which is a layout diagram of each mounting portion 4, external pipe 5 and each flow channel in this embodiment, wherein the code of each mounting portion 4 and external pipe 5 is as follows Figure 8As shown, the mounting portion 4 on the first sub-section 1 connected to the first flow channel 10 includes a first pump mounting portion 42, a second pump mounting portion 43, and a first sensor mounting portion T1, and the external pipe 5 includes a first external pipe A, a second external pipe B, a third external pipe C, a fourth external pipe D, a fifth external pipe E, a sixth external pipe F, a seventh external pipe H, and an eighth external pipe K; the mounting portion 4 near the second sub-section 2 connected to the second flow channel 20 includes a valve mounting portion 43, a second sensor mounting portion T2, a third sensor mounting portion T3, and a fourth sensor mounting portion T4, and the external pipe 5 includes a ninth external pipe M, a tenth external pipe N, an eleventh external pipe P, and a twelfth external pipe Q. The above-mentioned sensors are water temperature sensors, and of course, they can be replaced with other types of sensors as needed.

[0035] See also Figure 8 , Fig. 9 and Fig.10In this embodiment, the valve mounting portion 43 is equipped with a multi-way valve, including at least six valve channels. Six valve ports connected to the six valve channels are arranged on the fourth sub-sub-plate 222. The valve port 1 V1 penetrates the third sub-sub-plate 221 and is connected to the third sub-flow channel section 201. Two branches are divided in the third sub-flow channel section 201. One branch is connected to the tenth external pipe N. A fourth sensor mounting portion T4 is provided on the third sub-sub-plate 221 to install a water temperature sensor to detect the temperature of the fluid in the flow channel. The other branch is connected to the first sub-flow channel section 101 through the second connecting section 20b and penetrates the second plate body 12, and is connected to the second external pipe B through the flow channel. The valve port 2 V2 penetrates the fourth sub-sub-plate 221 and is connected to the second sub-flow channel section 101. The plate 222 is connected to the third sub-flow channel section 201 and is connected to the ninth external pipe M; the valve port three V3 is connected to the fourth sub-flow channel section 202, and is connected to the first sub-flow channel section 101 through the flow channel that runs through the third sub-sub-plate 221 and the second plate body 12 in the fourth sub-flow channel section 202, and is connected to the pump suction chamber 421 of the first pump mounting portion 42 in the first sub-flow channel section 101 through the through hole 422 that runs through the first plate body 11, and then is connected to the first sub-flow channel section 101 through the channel 424' that is connected to the mounting cavity 42' of the first pump mounting portion 42 and obliquely passes through the first plate body 11, and is connected to the first sub-flow channel section 101, and is connected to the sixth external pipe F in the first sub-flow channel section 101 through the flow channel again; the valve port four V4 runs through The third sub-sub-plate 221 is connected to the third sub-channel segment 201, and is connected to the first sub-channel segment 101 through the channel penetrating the second plate body 12 in the third sub-channel segment 201, and is connected to the pump suction chamber 421 of the second pump mounting portion 42 through the through hole 422 penetrating the first plate body 11 in the first sub-channel segment 101, and is then connected to the third sub-channel segment 201 again through the channel 424' communicating with the mounting cavity 42' of the first pump mounting portion 42 and the second connecting segment 20b penetrating the second plate body 12, and is connected to the eleventh external pipe P in the third sub-channel segment 201. A second sensor mounting portion T2 is provided on the third sub-sub-plate 221 to mount a water temperature sensor. Detect the temperature of the fluid in the flow channel; valve port five V5 is connected to the fourth sub-flow channel section 202, and then connected to the first sub-flow channel section 101 through the second connecting section 20b that penetrates the third sub-sub-plate 221 and the second plate body 12, and is connected to the third external pipe C and the eighth external pipe K in the first sub-flow channel section 101; valve port six V6 penetrates the third sub-sub-plate 221 and is connected to the third sub-flow channel section 201, and then connected to the first sub-flow channel section 101 through the second connecting section 20b that penetrates the second plate body 12, and is connected to the seventh external pipe H in the first sub-flow channel section 101. A first sensor mounting portion T1 is provided on the first main board to install a water temperature sensor to detect the temperature of the fluid in the flow channel.In addition, a first external pipe A and a fifth external pipe E are provided on the first plate body 11, a flow channel connecting the first external pipe A and the fifth external pipe E is provided in the first sub-flow channel section 101, a fourth external pipe D is provided on the second sub-sub-plate 212, the fourth external pipe D is connected to the second sub-flow channel section 102, is connected to the fourth sub-flow channel section 202 through the second connecting section 20b that runs through the second plate body 12 and the third sub-sub-plate 221, and is connected to the twelfth external pipe Q, and a third sensor mounting portion T3 is provided on the fourth sub-sub-plate 222 for mounting a water temperature sensor to detect the temperature of the fluid in the flow channel.

[0036] In one of the embodiments, the first external pipe A and the second external pipe B are used to connect the battery heating circuit, the third external pipe C and the fourth external pipe D are used to connect the water-cooled condenser, the fifth external pipe E and the sixth external pipe F are used to connect the inlet and outlet of the water side heat exchanger, the seventh external pipe H and the eighth external pipe K are used to connect the low-temperature radiator, the ninth external pipe M and the tenth external pipe N are used to connect the battery cooling circuit, and the eleventh external pipe P and the twelfth external pipe Q are used to connect the drive motor thermal management circuit.

[0037] It should be noted that the above embodiments are only used to illustrate the present invention and are not intended to limit the technical solutions described in the present invention, such as the directional definitions of "front", "back", "left", "right", "up" and "down". Although the present invention has been described in this specification with reference to the above embodiments, it should be understood by those skilled in the art that the present invention can still be modified, combined or replaced by equivalents, and all technical solutions and improvements thereof that do not depart from the spirit and scope of the present invention should be included in the scope of the claims of the present invention.

Claims

1. A flow channel plate, characterized in that: The flow channel plate comprises a first sub-section (1) and a second sub-section (2); the first sub-section (1) and the second sub-section (2) are fixedly connected or positionally connected; the flow channel plate has a first flow channel (10) and a second flow channel (20); the first flow channel (10) is located in the first sub-section (1); the second flow channel (20) is located in the second sub-section (2); the first flow channel (10) and the second flow channel (20) are connected to define a first direction (S); the first direction (S) is perpendicular to the extension direction of the first sub-section (1); along the first direction (S), at least part of the second sub-section (2) is located on one side of the first sub-section (1); and at least part of the second flow channel (20) is located on one side of the first sub-section (1).

2. The flow channel plate according to claim 1, characterized in that: The first sub-section (1) comprises a first plate body (11) and a first sub-plate (21); the second sub-section (2) comprises a second plate body (12) and a second sub-plate (22); the first plate body (11) and the second plate body (12) are fixedly connected or positionally connected; along the first direction (S), at least a portion of the second plate body (12) is located on one side of the first plate body (11); the first plate body (11) and the second plate body (12) each have at least one connecting surface (a); the first sub-plate (21) and the connecting surface (a) of the first plate body (11) are sealed; and the second sub-plate (22) and the connecting surface (a) of the second plate body (12) are sealed.

3. The flow channel plate according to claim 2, characterized in that: The first plate body (11) comprises a first supporting portion (11a) and a first connecting portion (11b), the first connecting portion (11b) extending toward the second plate body (12) relative to the first supporting portion (11a), the second plate body (12) comprises a second supporting portion (12a) and a second connecting portion (12b), the second connecting portion (12b) being closer to the first plate body (11) relative to the second supporting portion (12a), the first flow channel (10) comprising a first flow channel section (10a) and a first connecting section (10b), the second flow channel (20) comprising a second flow channel section (20a) and a second connecting section (20b), the first supporting portion (11a) 1a) is sealed and connected with the first sub-plate (21) to form at least a part of the first flow channel section (10a); the second supporting portion (12a) is sealed and connected with the second sub-plate (22) to form at least a part of the second flow channel section (20a); the first connecting section (10b) and the second connecting section (20b) are respectively located at the first connecting portion (11b) and the second connecting portion (12b); the first connecting section (10b) is connected to the first flow channel section (10a); the second connecting section (20b) is connected to the second flow channel section (20a); and the first connecting section (10b) is connected to the second connecting section (20b).

4. The flow channel plate according to claim 3, characterized in that: Along the first direction (S), the second supporting portion (12a) is located on both sides of the second connecting portion (12b), the second connecting section (20b) located at the second connecting portion (12b) passes through the second plate body (12), and the second connecting section (20b) is connected to the first connecting section (10b).

5. The flow channel plate according to claim 4, characterized in that: Along the first direction (S), the thickness of the first connecting portion (11b) is greater than that of the first supporting portion (11a), the first connecting portion (11b) and the second connecting portion (12b) are fixedly connected or are an integral structure, and the flow channel plate has a reinforcing rib (3), and the reinforcing rib (3) is fixedly connected to the first connecting portion (11b) and the second connecting portion (12b).

6. The flow channel plate according to any one of claims 2 to 5, characterized in that: The first plate body (11) and the second plate body (12) are an integral structure, and the first plate body (11) and the second plate body (12) are arranged vertically.

7. The flow channel plate according to claim 6, characterized in that: The first plate body (11) has two connecting surfaces (a), the two connecting surfaces (a) are respectively located on two sides of the first plate body (11), the first sub-plate (21) comprises a first sub-plate (211) and a second sub-plate (212), the first flow channel section (10a) comprises a first sub-flow channel section (101) and a second sub-flow channel section (102), the first sub-plate (211) and the second sub-plate (212) are respectively sealed with the two connecting surfaces (a) of the first plate body (11), the wall forming the first sub-flow channel section (101) is located on the first sub-plate (211) and the first plate body (11), and the wall forming the second sub-flow channel section (102) is located on the second sub-plate (212) and the first plate body (11).

8. The flow channel plate according to claim 7, characterized in that: The second sub-plate (22) connected to the second plate body (12) comprises a third sub-plate (221) and a fourth sub-plate (222); the second flow channel section (20a) comprises a third sub-plate (201) and a fourth sub-plate (202); the connection surface between the third sub-plate (221) and the second plate body (12) is sealed, the wall of the third sub-plate (201) is located between the third sub-plate (221) and the second plate body (12); the side of the third sub-plate (221) away from the second plate body (12) is sealed with the fourth sub-plate (222), the wall of the fourth sub-plate (202) is located between the third sub-plate (221) and the fourth sub-plate (222).

9. An integrated component, characterized in that: The integrated assembly comprises a flow channel plate and a thermal management component as described in any one of claims 1 to 8, wherein the thermal management component comprises at least one of an expansion kettle, a pump, a valve, and a sensor, and the flow channel plate has a mounting portion (4), and the thermal management component is mounted on the mounting portion (4).

10. The integrated assembly according to claim 9, characterized in that The integrated component comprises an expansion kettle (41), at least a portion of the expansion kettle (41) and the flow channel plate are an integrated structure, and a kettle cavity of the expansion kettle (41) is connected to the first flow channel (10) or the second flow channel (20).

11. The integrated assembly according to claim 10, characterized in that The flow channel plate has a side wall surface (40), at least a portion of the mounting portion (4) is located on the side wall surface (40), the mounting portion (4) includes a pump mounting portion (42), the pump mounting portion (42) includes a mounting cavity (42'), the flow channel plate has a reinforcing portion (424), the reinforcing portion (424) is fixedly connected to the pump mounting portion (42) or is an integral structure, the reinforcing portion (424) has a channel (424'), the channel (424') is connected to the mounting cavity (42'), and the channel (424') is connected to the first flow channel (10) or the second flow channel (20); the reinforcing portion (424) protrudes relative to the side wall surface (40), and the reinforcing portion (424) extends from the first sub-portion (1) to the second sub-portion (2).

12. The integrated assembly according to claim 11, characterized in that The first sub-section (1) comprises a first plate body (11) and a first sub-plate (211); the first sub-plate (211) is sealingly arranged on one side of the first plate body (11); at least a portion of the expansion kettle (41) is an integral structure with the first sub-plate (211); the kettle cavity of the expansion kettle (41) is in communication with the first flow channel (10); the side wall surface (40) is located on the other side of the first plate body (11); on the side wall surface (40), the pump mounting portion (42) is an integral structure with the first plate body (11); the pump mounting portion (42) is in communication with the first flow channel (10); The second sub-section (2) comprises a second plate body (12), a third sub-sub-plate (221) and a fourth sub-sub-plate (222); the third sub-sub-plate (221) is sealingly arranged on a side of the second plate body (12) away from the first plate body (11); one side of the fourth sub-sub-plate (222) is sealingly arranged with the third sub-sub-plate (221); the other side of the fourth sub-sub-plate (222) has a valve mounting portion (43); and a valve channel of the valve mounting portion (43) is connected to the second flow channel (20).

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