Assembly pressure maintaining device and method

Abstract

The invention discloses an assembly pressure maintaining device and method, and belongs to the technical field of product manufacturing. The assembling and pressure maintaining device comprises an assembling assembly and a pressure maintaining turnover assembly, the assembling assembly comprises a first fixing piece and a second fixing piece which are oppositely arranged, the first fixing piece is used for fixing a first component, and the second fixing piece is used for fixing a second component, so that the first component is opposite to the second component; the pressure-maintaining turnover assembly comprises a first pressure-maintaining turnover piece and a second pressure-maintaining turnover piece, and under the condition that the first fixing piece and the second fixing piece fix the first component and the second component correspondingly, the first pressure-maintaining turnover piece is located on the side, back to the second component, of the first component, and the second pressure-maintaining turnover piece is located on the side, back to the first component, of the second component; and in the process that the first fixing piece and the second fixing piece are close to each other, the first component and the second component are close to each other, and the first pressure maintaining turnover piece and the second pressure maintaining turnover piece are close to each other, so that the first pressure maintaining turnover piece and the second pressure maintaining turnover piece jointly press the first component and the second component.

Description

Technical Field

[0001] This application belongs to the technical field of product manufacturing, and particularly relates to an assembly pressure-holding device and method. Background Art

[0002] In the field of product manufacturing, many product modules are formed by connecting two components with an adhesive. Specifically, one surface of one of the two components is coated with the adhesive, and the surface coated with the adhesive faces the surface of the other component. An assembly component is used to bring the two components closer to each other, thereby pressing the adhesive to connect the two components.

[0003] In order to make the connection between the two components more stable, usually after the two components are assembled, the assembled product module is taken out of the assembly component, and then the product module is placed into a pressure-holding component, and the pressure-holding component is used to perform pressure-holding on the product module to keep the pressing force of the two components on the adhesive constant. However, after the product module is taken out of the assembly component and before it is placed into the pressure-holding component, the product module does not bear the pressure-holding force, and the adhesive does not bear the pressing force, and the adhesive is easy to rebound, resulting in easy sealing leakage at the bonding place. Moreover, before being placed into the pressure-holding component, processes such as glue cleaning and appearance inspection need to be performed on the product module, which also easily pulls the adhesive and reduces the first-pass yield of the process. Summary of the Invention

[0004] The purpose of the embodiments of this application is to provide an assembly pressure-holding device and method, which can solve the problem of easy sealing leakage of the product module in the related art after assembly and before pressure-holding.

[0005] In a first aspect, the embodiments of this application provide an assembly pressure-holding device for assembling and pressure-holding a first component and a second component. The assembly pressure-holding device includes:

[0006] An assembly component, which includes a first fixing member and a second fixing member arranged opposite to each other. The first fixing member is used to fix the first component, and the second fixing member is used to fix the second component so that the first component and the second component are opposite to each other;

[0007] A pressure-holding turnover component, which includes a first pressure-holding turnover member and a second pressure-holding turnover member. When the first fixing member and the second fixing member respectively fix the first component and the second component, the first pressure-holding turnover member is located on the side of the first component facing away from the second component, and the second pressure-holding turnover member is located on the side of the second component facing away from the first component;

[0008] During the process of the first fixing member and the second fixing member approaching each other, the first component and the second component approach each other, and the first pressure-holding turnover member and the second pressure-holding turnover member approach each other, so that the first pressure-holding turnover member and the second pressure-holding turnover member jointly press the first component and the second component.

[0009] In a second aspect, an embodiment of the present application further provides an assembly pressure-holding method, which is applied to the above-mentioned assembly pressure-holding device. The method includes:

[0010] Fix the first component and the second component to the first fixing member and the second fixing member respectively;

[0011] Arrange the first pressure-holding turnover member and the second pressure-holding turnover member on the opposite sides of the first component and the second component respectively;

[0012] Control the first fixing member and the second fixing member to approach each other to assemble the first component and the second component. At the same time, the first pressure-holding turnover member and the second pressure-holding turnover member approach each other to press the first component and the second component.

[0013] In the embodiment of the present application, while the first fixing member and the second fixing member of the assembly component assemble the first component and the second component, the first pressure-holding turnover member and the second pressure-holding turnover member can approach each other, so that the first pressure-holding turnover member and the second pressure-holding turnover member jointly press the first component and the second component. That is to say, during the process of the assembly component assembling the first component and the second component, the pressure-holding turnover component holds the pressure on the first component and the second component, and the assembly process and the pressure-holding process are carried out simultaneously. Therefore, the adhesive between the first component and the second component continuously bears the pressing force, effectively avoiding the problem of adhesive rebound and being beneficial to improving the sealing performance. Moreover, after the assembly process is completed, the first pressure-holding turnover member and the second pressure-holding turnover member will also continuously hold the pressure on the first component and the second component. Even if it is necessary to perform glue cleaning operation or appearance inspection on the product module, it is not easy to pull the adhesive, which is beneficial to improving the first-pass yield of the process. Description of the Drawings

[0014] Figures 1-3 is a cross-sectional view of the assembly pressure-holding device disclosed in the embodiment of the present application during the process of the first fixing member and the second fixing member gradually approaching each other;

[0015] Figure 4 is a schematic structural diagram of the pressure-holding turnover component disclosed in the embodiment of the present application;

[0016] Figure 5 is a schematic structural diagram of the assembly component disclosed in the embodiment of the present application;

[0017] Figure 6It is a schematic structural diagram of a first component and a second component disclosed in an embodiment of the present application;

[0018] Figures 7-10 It is a schematic structural diagram when an assembly component sequentially places a first pressure-holding turnover part, a first component, a second component, and a second pressure-holding turnover part in the embodiment of the present application;

[0019] Figure 11 It is a cross-sectional view of an assembly component disclosed in an embodiment of the present application;

[0020] Figure 12 It is a schematic cooperation diagram of a pressure-holding turnover component and a product module disclosed in an embodiment of the present application;

[0021] Figure 13 It is a schematic structural diagram of a pressure-holding component disclosed in an embodiment of the present application;

[0022] Figure 14 It is an exploded view when the pressure-holding component holds the product module in the embodiment of the present application;

[0023] Figure 15 It is Figure 14 a cross-sectional view of the shown structure;

[0024] Figure 16 It is a flowchart of an assembly pressure-holding method disclosed in an embodiment of the present application.

[0025] Explanation of reference numerals:

[0026] 100 - Pressure-holding turnover component, 110 - First pressure-holding turnover part, 111 - First magnetic part, 112 - Third magnetic part, 113 - First handle, 120 - Second pressure-holding turnover part, 121 - Second magnetic part, 122 - Second handle,

[0027] 200 - Assembly component, 210 - First fixing part, 211 - Electromagnetic device, 212 - First limiting groove, 213 - First guiding part, 220 - Second fixing part, 221 - Second limiting groove, 222 - First receiving groove, 223 - Second guiding part, 230 - Driving mechanism, 240 - Connecting plate, 250 - Controller,

[0028] 300 - Pressure-holding component, 310 - First pressure-holding part, 311 - First opening, 312 - Protruding structure, 313 - Fourth magnetic part, 320 - Second pressure-holding part, 321 - Second opening, 322 - Second receiving groove, 323 - Fifth magnetic part,

[0029] 400 - Product module, 410 - First component, 420 - Second component, 430 - Adhesive. Detailed implementation manners

[0030] Next, the technical solutions in the embodiments of the present application will be clearly described in conjunction with the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are part of the embodiments of the present application, rather than all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art belong to the scope of protection of the present application.

[0031] The terms "first", "second", etc. in the specification and claims of the present application are used to distinguish similar objects, rather than to describe a specific order or sequence. It should be understood that such data can be interchanged under appropriate circumstances so that the embodiments of the present application can be implemented in an order other than those illustrated or described herein, and the objects distinguished by "first", "second", etc. are usually of the same category, and the number of objects is not limited. For example, the first object can be one or multiple. In addition, "and / or" in the specification and claims means at least one of the connected objects, and the character " / " generally indicates an "or" relationship between the associated objects before and after.

[0032] Next, in conjunction with the accompanying drawings, the assembly pressure-holding device and method provided in the embodiments of the present application will be described in detail through specific embodiments and their application scenarios.

[0033] Please refer to Figures 1-15 , the assembly pressure-holding device disclosed in the embodiments of the present application is used to assemble and hold the pressure of the first component 410 and the second component 420, that is, to hold the pressure while assembling the first component 410 and the second component 420. The assembly pressure-holding device includes an assembly component 200 and a pressure-holding turnover component 100. Among them, the assembly component 200 is used to assemble the first component 410 and the second component 420, and the pressure-holding turnover component 100 is used to hold the pressure of the first component 410 and the second component 420 during the assembly process.

[0034] Optionally, as shown in Figure 6 , the first component 410 can be a screen, and the second component 420 can be a cover body. During the assembly process, the edge area of the screen is connected to the edge area of the cover body through an adhesive 430. Of course, the first component 410 and the second component 420 can also be other components that need to be connected through the adhesive 430.

[0035] The assembly component 200 includes a first fixing member 210 and a second fixing member 220 which are oppositely arranged. The first fixing member 210 is used to fix the first component 410, and the second fixing member 220 is used to fix the second component 420, so that the first component 410 and the second component 420 are opposite to each other. Both the first fixing member 210 and the second fixing member 220 can adopt structures such as frames and brackets, or structures similar to manipulators, or other structures such as fixing plates that can play a supporting role. The embodiments of the present application do not specifically limit the structures of the first fixing member 210 and the second fixing member 220. It is only necessary that the first fixing member 210 can fix the first component 410, and the second fixing member 220 can fix the second component 420. Optionally, the first fixing member 210 can fix the first component 410 by means of clamping, adsorption, etc., to prevent the first component 410 from displacing relative to the first fixing member 210. The second fixing member 220 can also fix the second component 420 by means of clamping, adsorption, etc., to prevent the second component 420 from displacing relative to the second fixing member 220. Further optionally, the second fixing member 220 is located above the first fixing member 210, and a limiting groove for accommodating the second component 420 is provided on the side of the second fixing member 220 facing away from the first fixing member 210. The second fixing member 220 directly fixes the second component 420 through the limiting groove.

[0036] The pressure-holding turnover component 100 includes a first pressure-holding turnover member 110 and a second pressure-holding turnover member 120. The first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 can adopt block structures, plate structures or other structures. The embodiments of the present application do not limit the specific structures of the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120. It is only necessary that they can jointly hold the pressure of the first component 410 and the second component 420 during the assembly process. When the first fixing member 210 and the second fixing member 220 respectively fix the first component 410 and the second component 420, the first pressure-holding turnover member 110 is located on the side of the first component 410 facing away from the second component 420, and the second pressure-holding turnover member 120 is located on the side of the second component 420 facing away from the first component 410.

[0037] Optionally, the first pressure-holding turnover member 110 can be connected to the side of the first component 410 facing away from the second component 420 to achieve relative fixation between the first pressure-holding turnover member 110 and the first component 410. Similarly, the second pressure-holding turnover member 120 can also be connected to the side of the second component 420 facing away from the first component 410 to achieve relative fixation between the second pressure-holding turnover member 120 and the second component 420. Further optionally, the first pressure-holding turnover member 110 and the first component 410, and the second pressure-holding turnover member 120 and the second component 420 can be connected by means of snap connection, magnetic attraction cooperation, etc.; or, the first pressure-holding turnover member 110 can be connected to the first fixing member 210 so that the first pressure-holding turnover member 110 is directly located on the side of the first component 410 facing away from the second component 420, and the second pressure-holding turnover member 120 can be connected to the second fixing member 220 so that the second pressure-holding turnover member 120 is directly located on the side of the second component 420 facing away from the first component 410.

[0038] Of course, the first pressure-holding turnover member 110 can also have no connection relationship with the first fixing member 210 and the first component 410, and the second pressure-holding turnover member 120 can also have no connection relationship with the second fixing member 220 and the second component 420.

[0039] During the process of the first fixing member 210 and the second fixing member 220 approaching each other, the first fixing member 210 drives the first component 410 to move, the second fixing member 220 drives the second component 420 to move, the first component 410 and the second component 420 approach each other, and the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 approach each other, so that the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 jointly press the first component 410 and the second component 420.

[0040] With the embodiment of the present application, while the first fixing member 210 and the second fixing member 220 of the assembly component 200 assemble the first component 410 and the second component 420, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 can approach each other, so that the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 jointly press the first component 410 and the second component 420. That is to say, during the process of the assembly component 200 assembling the first component 410 and the second component 420, the pressure-holding turnover assembly 100 performs pressure-holding on the first component 410 and the second component 420, and the assembly process and the pressure-holding process are carried out simultaneously. Therefore, the adhesive 430 between the first component 410 and the second component 420 continuously bears the pressing force, effectively avoiding the problem of the rebound of the adhesive 430, which is beneficial to improving the sealing performance. Moreover, after the assembly process is completed, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 will also continuously perform pressure-holding on the first component 410 and the second component 420. Even if it is necessary to perform glue cleaning operation or appearance inspection on the product module 400, it is not easy to pull the adhesive 430, which is beneficial to improving the first-pass yield of the process.

[0041] In an alternative embodiment, the first pressure-holding turnover member 110 is provided with a first pressing structure, and the second pressure-holding turnover member 120 is provided with a second pressing structure. The first pressing structure and the second pressing structure can be matched with each other, and the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 can press the first component 410 and the second component 420 through the first pressing structure and the second pressing structure. Optionally, both the first pressing structure and the second pressing structure can be snap-fit structures. During the assembly process of the first component 410 and the second component 420, the first pressing structure and the second pressing structure are matched in a snap-fit manner, and the first component 410 and the second component 420 are pressed through the snap-fit force; the first pressing structure and the second pressing structure can also be magnetic structures. During the assembly process of the first component 410 and the second component 420, the first pressing structure and the second pressing structure are matched in a magnetic attraction manner, and the first component 410 and the second component 420 are pressed through the magnetic attraction force. Of course, the first pressing structure and the second pressing structure can also be matched in other ways.

[0042] With this embodiment, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 are respectively provided with pressing structures for cooperation, and the two can directly press the first component 410 and the second component 420 during the assembly process. The first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 do not need to rely on external structures or external forces for pressing, making the pressure-holding process more convenient.

[0043] Of course, in other embodiments, the first pressure-holding turnover member 110 may not be provided with the first pressing structure, and the second pressure-holding turnover member 120 may not be provided with the second pressing structure. The first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 press the first component 410 and the second component 420 by means of an external acting force.

[0044] In an alternative embodiment, referring to Figure 4 As shown, the first pressing structure includes a first magnetic member 111, and the second pressing structure includes a second magnetic member 121. The first magnetic member 111 and the second magnetic member 121 can be, but are not limited to, magnets, and their magnetic poles are different. When the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 are opposite to each other, the first magnetic member 111 attracts the second magnetic member 121. Specifically, when the first component 410 and the second component 420 are opposite to each other, the first pressure-holding turnover member 110 is located on the side of the first component 410 facing away from the second component 420, and the second pressure-holding turnover member 120 is located on the side of the second component 420 facing away from the first component 410, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 are opposite to each other.

[0045] In this embodiment, the first pressing structure and the second pressing structure directly adopt magnetic members, and the magnetic members are arranged on the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120. The pressing structure is simple, and the first component 410 and the second component 420 can be pressed directly by using the magnetic attraction force, without setting a clamping structure or other pressing structures with more complex structures.

[0046] Optionally, the first magnetic member 111 can be arranged in the first pressure-holding turnover member 110 in an embedded manner, and the second magnetic member 121 can also be arranged in the second pressure-holding turnover member 120 in an embedded manner. In this way, the first magnetic member 111 does not protrude from the surface of the first pressure-holding turnover member 110, which is beneficial to the surface of the first pressure-holding turnover member 110 being in close contact with the surface of the first component 410. The second magnetic member 121 does not protrude from the surface of the second pressure-holding turnover member 120, which is beneficial to the surface of the second pressure-holding turnover member 120 being in close contact with the surface of the second component 420.

[0047] In an alternative embodiment, the first pressure-holding turnover member 110 may be provided with only one first magnetic member 111, and the second pressure-holding turnover member 120 may be provided with only one second magnetic member 121.

[0048] In another embodiment, a plurality of first magnetic members 111 are spaced apart on the first pressure-holding turnover member 110, and a plurality of second magnetic members 121 are spaced apart on the second pressure-holding turnover member 120. When the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 face each other, the first magnetic members 111 and the second magnetic members 121 are attracted to each other one by one. In this way, by providing a plurality of first magnetic members 111 and a plurality of second magnetic members 121, it is beneficial to increase the magnetic attraction force between the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120, increase the pressing force on the first component 410 and the second component 420, and is beneficial to increase the pressure-holding force.

[0049] Optionally, the volumes of the first magnetic members 111 are different from each other, and the volumes of the second magnetic members 121 are different from each other. Further optionally, a first magnetic member 111 with a larger volume is provided in the middle area of the first pressure-holding turnover member 110, and a plurality of first magnetic members 111 with smaller volumes are spaced apart on the outer periphery of the first magnetic member 111 with the larger volume. Similarly, a second magnetic member 121 with a larger volume is provided in the middle area of the second pressure-holding turnover member 120, and a plurality of second magnetic members 121 with smaller volumes are spaced apart on the outer periphery of the second magnetic member 121 with the larger volume. The first magnetic member 111 with the larger volume and the second magnetic member 121 with the larger volume are attracted to each other correspondingly, and the first magnetic members 111 with smaller volumes and the second magnetic members 121 with smaller volumes are attracted to each other one by one.

[0050] In an alternative embodiment, an electromagnetic device 211 is provided on one of the first fixing member 210 and the first pressure-holding turnover member 110, and a third magnetic member 112 is provided on the other. The electromagnetic device 211 can be a component that can generate a magnetic field when energized, such as an electromagnet or a coil, and the third magnetic member 112 can be, but is not limited to, a magnet. When the first fixing member 210 carries the first pressure-holding turnover member 110 and the electromagnetic device 211 is in an energized state, the electromagnetic device 211 attracts the third magnetic member 112 to fix the first pressure-holding turnover member 110 by the first fixing member 210. Optionally, as shown in Figure 5 and Figure 11 shown, the first fixing member 210 can be provided with the electromagnetic device 211, and as shown in Figure 4 shown, the first pressure-holding turnover member 110 is provided with the third magnetic member 112; or, the first fixing member 210 is provided with the third magnetic member 112, and the first pressure-holding turnover member 110 is provided with the electromagnetic device 211.

[0051] In this embodiment, the electromagnetic device 211 in the energized state is attracted to the third magnetic member 112 to fix the first pressure-holding turnover member 110 by the first fixing member 210. Moreover, the electromagnetic device 211 will not continue to attract the third magnetic member 112 in the de-energized state, and the first fixing member 210 releases the first pressure-holding turnover member 110, which is beneficial to the first pressure-holding turnover member 110 disengaging from the first fixing member 210 and cooperating with the second pressure-holding turnover member 120 to hold the first component 410 and the second component 420 during the assembly process of the first component 410 and the second component 420.

[0052] Moreover, in the embodiment where the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 press the first component 410 and the second component 420 by magnetic attraction, the electromagnetic device 211 and the third magnetic member 112 are used to fix the first pressure-holding turnover member 110 by the first fixing member 210, preventing the first pressure-holding turnover member 110 from disengaging from the first fixing member 210 and attracting the second pressure-holding turnover member 120 before the assembly of the first component 410 and the second component 420.

[0053] Of course, in other embodiments, the first fixing member 210 may not fix the first pressure-holding turnover member 110 through the electromagnetic device 211 and the third magnetic member 112. The first fixing member 210 may fix the first pressure-holding turnover member 110 by using an external force, or the first fixing member 210 is provided with a structure such as a cylinder, and the first pressure-holding turnover member 110 is pressed against the first fixing member 210 by using the structure such as the cylinder.

[0054] In an alternative embodiment, referring to Figure 5 and Figure 11 as shown, the first fixing member 210 is provided with a first limiting groove 212 for accommodating the first pressure-holding turnover member 110. When the first pressure-holding turnover member 110 is placed in the first limiting groove 212, the first pressure-holding turnover member 110 is in limiting cooperation with the groove wall surface of the first limiting groove 212, and the electromagnetic device 211 is opposite to the third magnetic member 112. Optionally, the structure of the first pressure-holding turnover member 110 is matched with the structure of the first limiting groove 212, and the first pressure-holding turnover member 110 is in limiting contact with the groove wall surface of the first limiting groove 212.

[0055] In this embodiment, the placement position of the first pressure-holding turnover member 110 is restricted by the first limiting groove 212 to position the first pressure-holding turnover member 110, which is beneficial to the accurate alignment of the electromagnetic device 211 and the third magnetic member 112.

[0056] Of course, in other embodiments, the first fixing member 210 may not be provided with the first limiting groove 212, and the first pressure-holding turnover member 110 is directly placed on the surface of the first fixing member 210. During the placement process, the electromagnetic device 211 is directly opposite to the third magnetic member 112.

[0057] In an alternative embodiment, the number of the electromagnetic devices 211 and the third magnetic members 112 is one each. In another embodiment, the number of the electromagnetic devices 211 and the third magnetic members 112 is plural. The electromagnetic devices 211 are arranged at intervals, and the third magnetic members 112 are arranged at intervals. The electromagnetic devices 211 and the third magnetic members 112 correspond to each other one by one. In this way, by using multiple sets of corresponding electromagnetic devices 211 and third magnetic members 112, when the electromagnetic devices 211 are powered on, different positions of the first fixing member 210 are attracted to different positions of the first pressure-maintaining turnover member 110, which is beneficial to stably fixing the first pressure-maintaining turnover member 110 by the first fixing member 210.

[0058] In an alternative embodiment, the assembly component 200 further includes a position detection element. The position detection element can be, but is not limited to, a position sensor. The position detection element is disposed on at least one of the first fixing member 210 and the second fixing member 220. The position detection element is used to detect the relative position of the first fixing member 210 and the second fixing member 220, and the position detection element is communicatively connected to the electromagnetic device 211. When the position detection element detects that the first fixing member 210 and the second fixing member 220 relatively move to the assembly position, the electromagnetic device 211 is in a power-off state.

[0059] Optionally, the position detection element may include a laser sensor. The laser sensor includes a transmitter and a receiver. One of the transmitter and the receiver is disposed on the first fixing member 210, and the other is disposed on the second fixing member 220. When the first fixing member 210 and the second fixing member 220 relatively move to the assembly position, the transmitter and the receiver are opposite to each other, and at this time, the laser emitted by the transmitter can be received by the receiver. Of course, the position detection element may also include a magnetic field sensor and a magnetic member. One of the magnetic field sensor and the magnetic member is disposed on the first fixing member 210, and the other is disposed on the second fixing member 220. Whether the first fixing member 210 and the second fixing member 220 relatively move to the assembly position is determined by detecting the magnetic field intensity by the magnetic field sensor.

[0060] It should be noted that the "assembly position" refers to the relative position of the first fixing member 210 and the second fixing member 220 when the first component 410 and the second component 420 start to be assembled. Optionally, the adhesive 430 is disposed on the assembly surface of the second component 420. When the adhesive 430 contacts the first component 410, it indicates that the first component 410 and the second component 420 start to be assembled.

[0061] By adopting this embodiment, since the position detection element is communicatively connected to the electromagnetic device 211, the power-off timing of the electromagnetic device 211 can be accurately controlled, which is conducive to accurately releasing the first pressure-holding turnover member 110 by the first fixing member 210 when the first component 410 and the second component 420 start to be assembled, so that it can cooperate with the second pressure-holding turnover member 120 to hold the pressure of the first component 410 and the second component 420.

[0062] Optionally, the assembly component 200 may further include a controller 250. The controller 250 is communicatively connected to the position detection element and the electromagnetic device 211 respectively. When the position detection element detects that the first fixing member 210 and the second fixing member 220 move relative to each other to the assembly position, the controller 250 controls the electromagnetic device 211 to power off.

[0063] Certainly, in other embodiments, the assembly component 200 may not be provided with a position detection element, and the power-off timing of the electromagnetic device 211 can be manually controlled.

[0064] In an alternative embodiment, referring to Figure 3 As shown, the second fixing member 220 is provided with a second limiting groove 221 and a first receiving groove 222 that communicate with each other. The first receiving groove 222 is used to receive the second component 420. The second limiting groove 221 is opened on one side of the first receiving groove 222 facing the first fixing member 210. That is to say, the second limiting groove 221 faces the first component 410 fixed by the first fixing member 210. Optionally, the structure of the first receiving groove 222 is matched with the structure of the second component 420. Referring to Figure 1 As shown, when the first fixing member 210 fixes the first component 410 and the first fixing member 210 and the second fixing member 220 approach each other, the first component 410 extends into the second limiting groove 221, and the first component 410 is in limiting cooperation with the groove wall surface of the second limiting groove 221. During the process of the first component 410 extending into the second limiting groove 221, the distance between the edge of the first component 410 and the groove wall surface of the second limiting groove 221 is small.

[0065] It should be noted that during the process of the first fixing member 210 and the second fixing member 220 approaching each other, the distance between the first fixing member 210 and the second fixing member 220 is greater than the distance between the first component 410 and the second component 420, ensuring that the relative movement distance of the first fixing member 210 and the second fixing member 220 can complete the assembly of the first component 410 and the second component 420.

[0066] As a slot, the second limiting slot 221 can not only allow the first component 410 to extend into it so that the first component 410 can approach the second component 420 to achieve the assembly of the two, but also limit the first component 410 to prevent the first component 410 from shifting relative to the first fixing member 210, which is beneficial to the accurate assembly of the first component 410 and the second component 420, realizing dual use of one thing.

[0067] Of course, in other embodiments, the second fixing member 220 can fix the second component 420 by other means or structures other than the first receiving slot 222. The second fixing member 220 can also not be provided with the second limiting slot 221, and only a slot is opened for the first component 410 to extend into.

[0068] In the solution of the present application, the first fixing member 210 and the second fixing member 220 can achieve relative movement by relying on an external force such as a manual force. However, in this case, the assembly and pressure maintaining assembly 300 still needs to rely on an external driving member, making the relative movement of the first fixing member 210 and the second fixing member 220 not very convenient. Moreover, using a manual force to make the first fixing member 210 and the second fixing member 220 move relative to each other, the movement speed is not stable enough, which easily affects the assembly effect.

[0069] To solve the above problems, the assembly component 200 further includes a driving mechanism 230. The driving mechanism 230 is connected to at least one of the first fixing member 210 and the second fixing member 220. The driving mechanism 230 can drive at least one of the first fixing member 210 and the second fixing member 220 to move, so that the first fixing member 210 and the second fixing member 220 approach or move away from each other. Among them, the driving mechanism 230 can be a structure such as a cylinder or a slide table module that can generate a linear displacement. Optionally, the driving mechanism 230 can be only connected to the first fixing member 210 or the second fixing member 220 to drive the first fixing member 210 or the second fixing member 220 to move; the driving mechanism 230 can also be connected to both the first fixing member 210 and the second fixing member 220 at the same time, and the driving mechanism 230 can drive the first fixing member 210 and the second fixing member 220 to move at the same time.

[0070] Adopting this embodiment, the assembly component 200 is separately provided with the driving mechanism 230, without the need to rely on an external driving member, which is beneficial to driving the first fixing member 210 and the second fixing member 220 to perform relative movement stably, with a stable movement speed, and is also beneficial to the stable assembly of the first component 410 and the second component 420.

[0071] Optionally, refer to Figure 5 and Figures 7-11As shown, connecting plates 240 are provided at both ends of the second fixing member 220. The number of driving mechanisms 230 is at least two, and two of the driving mechanisms 230 are respectively connected to the two connecting plates 240. Two of the driving mechanisms 230 drive the second fixing member 220 to move relative to the first fixing member 210 through the corresponding connecting plates 240 respectively.

[0072] In an alternative embodiment, referring to Figure 11 As shown, the assembly component 200 further includes a first guiding member 213 and a second guiding member 223. The first guiding member 213 is connected to the first fixing member 210, and the second guiding member 223 is connected to the second fixing member 220. The first guiding member 213 and the second guiding member 223 are guidingly engaged in a first direction, and the first direction is the direction in which the first fixing member 210 and the second fixing member 220 approach or move away from each other. Optionally, one of the first guiding member 213 and the second guiding member 223 may be a guiding post, and the other may be a guiding sleeve. The axial direction of the guiding post is parallel to the first direction, the guiding sleeve is sleeved outside the guiding post, and the guiding sleeve and the guiding post are guidingly engaged in the first direction; or, one of the first guiding member 213 and the second guiding member 223 may be a slider, and the other may be a slide rail. The slide rail extends in the first direction, the slider extends into the slide rail, and the slider and the slide rail are slidably engaged in the first direction. Of course, the first guiding member 213 and the second guiding member 223 may also adopt other structures capable of guiding.

[0073] Adopting this embodiment, relying on the first guiding member 213 and the second guiding member 223 with guiding cooperation, the relative movement direction of the first fixing member 210 and the second fixing member 220 can be guided, which is beneficial for the first fixing member 210 and the second fixing member 220 to accurately approach each other in the first direction and avoid the deviation of the relative movement direction of the first fixing member 210 and the second fixing member 220.

[0074] Of course, in other embodiments, the assembly component 200 may not be provided with the first guiding member 213 and the second guiding member 223, and only rely on the driving mechanism 230 to drive at least one of the first fixing member 210 and the second fixing member 220 to move in a fixed direction.

[0075] In the solution of the present application, referring to Figures 13-15As shown, the assembly pressure-holding device further includes a pressure-holding assembly 300. The pressure-holding assembly 300 includes a first pressure-holding member 310 and a second pressure-holding member 320. The assembly assembly 200 is used to assemble a first component 410 and a second component 420 to form a product module 400. The product module 400 can be placed between the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 in a state of being jointly pressed, so that the first pressure-holding member 310 and the second pressure-holding member 320 press the product module 400. That is to say, the first pressure-holding member 310 and the second pressure-holding member 320 can perform pressure-holding on the assembled product module 400. The first pressure-holding member 310 and the second pressure-holding member 320 can be of an annular structure to perform pressure-holding on the edge area of the product module 400, or the first pressure-holding member 310 and the second pressure-holding member 320 can be of a plate-like structure to perform pressure-holding on the entire area of the product module 400. Of course, the first pressure-holding member 310 and the second pressure-holding member 320 can also adopt other structures, and the embodiments of the present application do not specifically limit the structures of the first pressure-holding member 310 and the second pressure-holding member 320.

[0076] Optionally, referring to Figure 14 As shown, the pressure-holding turnover assembly 100 holds the central area of the product module 400, and the pressure-holding assembly 300 holds the edge area of the product module 400. Therefore, the pressure-holding turnover assembly 100 will not affect the pressure-holding of the product module 400 by the pressure-holding assembly 300. After the driving mechanism 230 drives the first fixing member 210 and the second fixing member 220 to approach each other to assemble the first component 410 and the second component 420, the driving mechanism 230 then drives the first fixing member 210 and the second fixing member to move away from each other to remove the overall structure of the pressure-holding turnover assembly 100 and the product module 400 from the first fixing member 210, thereby facilitating the pressure-holding of the assembled product module 400 by the pressure-holding assembly 300.

[0077] Adopting this embodiment, the pressure-holding assembly 300 continuously performs pressure-holding on the product module 400, avoiding the problem of the adhesive 430 between the first component 410 and the second component 420 rebounding, which is beneficial to improving the sealing performance. Moreover, from the start of the assembly of the first component 410 and the second component 420 to before the pressure-holding assembly 300 performs pressure-holding on the product module 400, the pressure-holding turnover assembly 100 can always perform pressure-holding on the first component 410 and the second component 420, effectively avoiding the problem of the adhesive 430 rebounding during the turnover of the product module 400.

[0078] Of course, in other embodiments, the assembly pressure-holding device may not be provided with the pressure-holding assembly 300, that is, the assembly pressure-holding assembly 300 only includes the pressure-holding turnover assembly 100 and the assembly assembly 200.

[0079] In an alternative embodiment, referring to Figures 13-15As shown, the first pressure-holding member 310 is provided with a first opening 311, and the second pressure-holding member 320 is provided with a second opening 321. When the product module 400 is located between the first pressure-holding member 310 and the second pressure-holding member 320, the first pressure-holding turnover member 110 penetrates through the first opening 311, and the second pressure-holding turnover member 120 penetrates through the second opening 321. Moreover, the first pressure-holding turnover member 110 can be detached from the first component 410 through the first opening 311, and the second pressure-holding turnover member 120 can be detached from the second component 420 through the second opening 321.

[0080] Among them, the shapes of the first opening 311 and the second opening 321 can be a square structure, a circular structure, etc. The embodiments of the present application do not limit the structures of the first opening 311 and the second opening 321. It is only required that the first opening 311 can allow the first pressure-holding turnover member 110 to penetrate through it, and the second opening 321 can allow the second pressure-holding turnover member 120 to penetrate through it. Optionally, the inner wall surface of the first opening 311 is matched with the outer peripheral surface of the first pressure-holding turnover member 110, and the inner wall surface of the second opening 321 is matched with the outer peripheral surface of the second pressure-holding turnover member 120.

[0081] Optionally, as Figure 4 shown, the first pressure-holding turnover member 110 is provided with a first handle 113, and the second pressure-holding turnover member 120 is provided with a second handle 122. When the pressure-holding turnover assembly 100 holds the pressure of the product module 400, the first handle 113 faces away from the second pressure-holding turnover member 120, and the second handle 122 faces away from the first pressure-holding turnover member 110. The first pressure-holding turnover member 110 is detached from the first component 410 through the first opening 311 by using the first handle 113, and the second pressure-holding turnover member 120 is detached from the second component 420 through the second opening 321 by using the second handle 122.

[0082] By adopting this embodiment, the first pressure-holding member 310 can make the first pressure-holding turnover member 110 detached from the first component 410 by providing the first opening 311, and the second pressure-holding member 320 can make the second pressure-holding turnover member 120 detached from the second component 420 by providing the second opening 321, so as to facilitate the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 to hold the pressure of other first components 410 and second components 420 during the assembly process; moreover, the first pressure-holding member 310 and the second pressure-holding member 320 are in an annular structure, and the two jointly hold the pressure of the entire edge area of the product module 400, which is beneficial to holding the pressure of the entire area corresponding to the adhesive 430 of the product module 400.

[0083] Of course, in other embodiments, the first pressure maintaining member 310 and the second pressure maintaining member 320 may both be provided without openings. The first pressure maintaining member 310 and the second pressure maintaining member 320 may be in a block structure or a strip structure. The extending direction of the strip structure is parallel to the extending direction of the edge area on a certain side of the product module 400, that is, the pressure maintaining assembly 300 performs pressure maintaining on a part of the edge area of the product module 400.

[0084] In an alternative embodiment, the pressing force between the first pressure maintaining member 310 and the second pressure maintaining member 320 may be less than or equal to the pressing force between the first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120.

[0085] In another embodiment, the pressing force between the first pressure maintaining member 310 and the second pressure maintaining member 320 is greater than the pressing force between the first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120. Optionally, the first pressure maintaining member 310 and the second pressure maintaining member 320 may press the product module 400 in a magnetic attraction manner. The first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120 may also press the first component 410 and the second component 420 in a magnetic attraction manner. The number of magnetic members provided on the first pressure maintaining member 310 and the second pressure maintaining member 320 is more than the number of magnetic members provided on the first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120, so that the pressing force between the first pressure maintaining member 310 and the second pressure maintaining member 320 is greater than the pressing force between the first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120. Of course, other structures may also be used to achieve that the pressing force between the first pressure maintaining member 310 and the second pressure maintaining member 320 is greater than the pressing force between the first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120.

[0086] Compared with the pressing force between the first pressure maintaining turnover member 110 and the second pressure maintaining turnover member 120, the pressing force between the first pressure maintaining member 310 and the second pressure maintaining member 320 is greater. Therefore, during the process of the product module 400 being switched from being pressure maintained by the pressure maintaining turnover assembly 100 to being pressure maintained by the pressure maintaining assembly 300, the pressing force borne by the product module 400 increases, which can more effectively avoid the problem of the adhesive 430 rebounding, and is beneficial to further improving the sealing performance of the product module 400.

[0087] In an alternative embodiment, referring to Figure 13As shown, at least one of the first pressure maintaining member 310 and the second pressure maintaining member 320 is provided with a protruding structure 312. The protruding structure 312 is used to face the edge area of the product module 400, that is, the protruding structure 312 is used to face the area corresponding to the adhesive 430. At least one of the first pressure maintaining member 310 and the second pressure maintaining member 320 presses the edge area of the product module 400 through the protruding structure 312. Optionally, only the first pressure maintaining member 310 or the second pressure maintaining member 320 may be provided with the protruding structure 312, or both the first pressure maintaining member 310 and the second pressure maintaining member 320 may be provided with the protruding structure 312; the protruding structure 312 may be a block-shaped protrusion or a strip-shaped protrusion. The embodiment of the present application does not specifically limit the shape of the protruding structure 312.

[0088] By adopting this embodiment, the pressing force between the first pressure maintaining member 310 and the second pressure maintaining member 320 is transmitted to the edge area of the product module 400 through the protruding structure 312, which is beneficial to concentrating the pressing force on the edge area corresponding to the adhesive 430, and can more effectively avoid the problem of the adhesive 430 rebounding, which is beneficial to further improving the sealing performance of the product module 400.

[0089] Of course, in other embodiments, the first pressure maintaining member 310 and the second pressure maintaining member 320 may not be provided with the protruding structure 312. The surfaces of the first pressure maintaining member 310 and the second pressure maintaining member 320 may be respectively attached to the product module 400, and the first pressure maintaining member 310 and the second pressure maintaining member 320 directly press the product module 400.

[0090] In an alternative embodiment, the protruding structure 312 may be a rigid structure.

[0091] In another embodiment, the protruding structure 312 is an elastic structure. Optionally, the protruding structure 312 may be made of materials such as rubber and foam strips. By adopting this embodiment, the protruding structure 312 has elastic properties. During the process of the first pressure maintaining member 310 and the second pressure maintaining member 320 pressing the product module 400, the protruding structure 312 can produce elastic deformation, so that the contact area between the protruding structure 312 and the product module 400 increases, avoiding damage to the product module 400 due to excessive stress concentration caused by too small contact area between the protruding structure 312 and the product module 400, and ensuring the safety performance of the product module 400.

[0092] In an alternative embodiment, at least one of the first pressure-holding member 310 and the second pressure-holding member 320 is provided with a second receiving groove 322 for receiving the product module 400. The protruding structure 312 is a strip structure, and the strip structure extends along the extending direction of the edge of the second receiving groove 322. Optionally, only the first pressure-holding member 310 or the second pressure-holding member 320 may be provided with the second receiving groove 322, or both the first pressure-holding member 310 and the second pressure-holding member 320 are provided with the second receiving groove 322. When the first pressure-holding member 310 and the second pressure-holding member 320 press the product module 400, the product module 400 extends into the second receiving groove 322, and the surface of the first pressure-holding member 310 contacts the surface of the second pressure-holding member 320.

[0093] In this way, with the protruding structure 312 in the form of a strip structure, the pressing force between the first pressure-holding member 310 and the second pressure-holding member 320 is transmitted to the strip edge area of the product module 400 through the protruding structure 312, that is, the pressing force presses the corresponding strip area of the adhesive 430, so that a larger area of the adhesive 430 is pressed, further effectively avoiding the problem of the adhesive 430 rebounding, which is beneficial to further improving the sealing performance of the product module 400.

[0094] In an alternative embodiment, at least one of the first pressure-holding member 310 and the second pressure-holding member 320 is provided with a second receiving groove 322 for receiving the product module 400. Along the extending direction of the edge of the second receiving groove 322, a plurality of fourth magnetic members 313 are spaced apart on the first pressure-holding member 310, and a plurality of fifth magnetic members 323 are spaced apart on the second pressure-holding member 320. The fourth magnetic members 313 and the fifth magnetic members 323 can be, but are not limited to, magnets, and their magnetic poles are opposite. When the first pressure-holding member 310 and the second pressure-holding member 320 press the product module 400, the fourth magnetic members 313 and the fifth magnetic members 323 are attracted to each other one by one.

[0095] With this embodiment, the first pressure-holding member 310 and the second pressure-holding member 320 can be directly provided with magnetic members. The pressing structure is simple, and the product module 400 can be pressed directly by using the magnetic attraction force, without setting a clamping structure or other complex pressing structures.

[0096] Optionally, the fourth magnetic members 313 can be arranged in an embedded manner on the first pressure-holding member 310, and the fifth magnetic members 323 can also be arranged in an embedded manner on the second pressure-holding member 320. In this way, the fourth magnetic members 313 do not protrude from the surface of the first pressure-holding member 310, which is beneficial to the surface of the first pressure-holding member 310 being in close contact with the surface of the product module 400, and the fifth magnetic members 323 do not protrude from the surface of the second pressure-holding member 320, which is beneficial to the surface of the second pressure-holding member 320 being in close contact with the surface of the product module 400.

[0097] Of course, in other embodiments, the first pressure-holding member 310 and the second pressure-holding member 320 may also adopt a snap-fit structure or other structures to press-fit the product module 400.

[0098] Based on the assembly pressure-holding device disclosed in the present application, an embodiment of the present application further provides an assembly pressure-holding method. Refer to Figure 16 As shown, the assembly pressure-holding method includes:

[0099] S100. Fix the first component 410 and the second component 420 to the first fixing member 210 and the second fixing member 220 respectively, with the assembly surface of the second component 420 facing away from the first component 410 and the assembly surface of the first component 410 facing away from the second component 420.

[0100] Optionally, the first fixing member 210 and the second fixing member 220 can be fixed to the first fixing member 210 and the second fixing member 220 respectively by means such as snap-fitting and magnetic attraction.

[0101] S200. Dispose the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 on the opposite sides of the first component 410 and the second component 420 respectively.

[0102] Specifically, the first pressure-holding turnover member 110 is disposed on the side of the first component 410 facing away from the second component 420, and the second pressure-holding turnover member 120 is disposed on the side of the second component 420 facing away from the first component 410. Optionally, the first pressure-holding turnover member 110 can be connected to the first component 410, and the second pressure-holding turnover member 120 is connected to the second component 420; or, the first pressure-holding turnover member 110 can be connected to the first fixing member 210, and the second pressure-holding turnover member 120 is connected to the second fixing member 220.

[0103] S300. Control the first fixing member 210 and the second fixing member 220 to approach each other to assemble the first component 410 and the second component 420. At the same time, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 approach each other to press-fit the first component 410 and the second component 420.

[0104] Optionally, a driving mechanism 230 is utilized to control the movement of at least one of the first fixing member 210 and the second fixing member 220, so that the first fixing member 210 and the second fixing member 220 drive the first component 410 and the second component 420 to approach each other respectively, for assembling the first component 410 and the second component 420. Moreover, the first pressure-holding turnover member 110 can be disposed on the first fixing member 210, and the second pressure-holding turnover member 120 can be disposed on the second fixing member 220. During the process that the first fixing member 210 and the second fixing member 220 approach each other, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 will also be driven to approach each other. Of course, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 can also approach each other by the driving force of other driving structures other than the driving mechanism 230.

[0105] In this embodiment, the second fixing member 220 is located above the first fixing member 210. The first fixing member 210 is provided with a first limiting groove 212, and the second fixing member 220 is provided with a first accommodating groove 222 for accommodating the second component 420 and a second limiting groove 221. The first pressure-holding turnover member 110 is first placed in the first limiting groove 212 of the first fixing member 210, then the first component 410 is placed on the surface of the first pressure-holding turnover member 110, then the second component 420 is placed in the second limiting groove 221, and finally the second pressure-holding turnover member 120 is placed on the surface of the second component 420, so that the first pressure-holding turnover member 110, the first component 410, the second component 420, and the second pressure-holding turnover member 120 are arranged in sequence. The driving mechanism 230 can drive the second fixing member 220 to drive the second component 420 and the second pressure-holding turnover member 120 to move.

[0106] By adopting the above assembly and pressure-holding method, during the assembly process of the first component 410 and the second component 420, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 jointly press the first component 410 and the second component 420, so that the assembly process and the pressure-holding process are carried out simultaneously. The adhesive 430 between the first component 410 and the second component 420 continuously bears the pressing force, effectively avoiding the problem of the rebound of the adhesive 430, which is beneficial to improving the sealing performance.

[0107] In an alternative embodiment, the assembly and pressure-holding method further includes:

[0108] S400. After the first component 410 and the second component 420 are assembled to form the product module 400, in the state where the product module 400 is jointly pressed by the first pressure-holding member 310 and the second pressure-holding member 320, the first pressure-holding member 310 and the second pressure-holding member 320 are respectively used to press the product module 400 from both sides of the product module 400.

[0109] Optionally, the first pressure-holding member 310 is provided with a first opening 311, and the second pressure-holding member 320 is provided with a second opening 321. When the first pressure-holding member 310 and the second pressure-holding member 320 press the product module 400, the first pressure-holding turnover member 110 penetrates through the first opening 311, and the second pressure-holding turnover member 120 penetrates through the second opening 321. At this time, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 jointly press the central area of the product module 400, and the first pressure-holding member 310 and the second pressure-holding member 320 jointly press the edge area of the product module 400, that is, the area corresponding to the adhesive 430.

[0110] With this embodiment, on the basis that the pressure-holding turnover assembly 100 presses the product module 400, the first pressure-holding member 310 and the second pressure-holding member 320 are used to perform pressure-holding on the product module 400, so that the pressure-holding force borne by the product module 400 increases. Moreover, the first pressure-holding member 310 and the second pressure-holding member 320 accurately press the area corresponding to the adhesive 430 of the product module 400, which can more effectively avoid the problem of the adhesive 430 between the first component 410 and the second component 420 rebounding, and is beneficial to further improving the sealing performance.

[0111] Of course, this step may not be performed in the assembly pressure-holding method, and only the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 are relied on to continuously press the product module 400.

[0112] In an optional embodiment, the assembly pressure-holding method further includes:

[0113] S500. During the process of the first pressure-holding member 310 and the second pressure-holding member 320 pressing the product module 400, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 are disassembled.

[0114] Optionally, the first pressure-holding turnover member 110 is provided with a first handle 113, and the second pressure-holding turnover member 120 is provided with a second handle 122. The first pressure-holding turnover member 110 is detached from the first component 410 through the first opening 311 by the first handle 113, and the second pressure-holding turnover member 120 is detached from the second component 420 through the second opening 321 by the second handle 122, so as to disassemble the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120.

[0115] With this embodiment, after the pressure-holding turnover assembly 100 is detached from the product module 400, it can continue to perform pressure-holding on other first components 410 and second components 420 during the assembly process.

[0116] Of course, in other embodiments, the first pressure-holding turnover member 110 and the second pressure-holding turnover member 120 may not be disassembled, and the pressure-holding assembly 300 and the pressure-holding turnover assembly 100 are used to continuously press the product module 400.

[0117] In an alternative embodiment, the assembly holding pressure method further includes:

[0118] S600. After the first fixing member 210 and the second fixing member 220 complete the assembly of the first component 410 and the second component 420, inspect the product module 400 formed by the first component 410 and the second component 420.

[0119] Optionally, inspecting the product module 400 includes performing a glue cleaning operation and an appearance inspection. Of course, it may also include some other inspection operations.

[0120] In this way, since the product module 400 after assembly is continuously pressed by the first holding pressure turnover member 110 and the second holding pressure turnover member 120, even if the product module 400 is inspected, the adhesive 430 will not be pulled, which is beneficial to improving the process first-pass yield.

[0121] The embodiments of the present application have been described above in conjunction with the accompanying drawings. However, the present application is not limited to the above specific embodiments. The above specific embodiments are merely illustrative and not restrictive. Under the inspiration of the present application, those of ordinary skill in the art can also make many forms without departing from the purpose of the present application and the scope protected by the claims, and all of them belong to the protection scope of the present application.

Claims

1. An assembly pressure-holding device for assembling and holding pressure on a first component (410) and a second component (420), characterized in that, The described assembly pressure-holding device includes: An assembly component (200), the assembly component (200) includes a first fixing member (210) and a second fixing member (220) arranged oppositely, the first fixing member (210) is used to fix the first component (410), and the second fixing member (220) is used to fix the second component (420) so that the first component (410) and the second component (420) are opposite to each other; A pressure-holding turnover component (100), the pressure-holding turnover component (100) includes a first pressure-holding turnover member (110) and a second pressure-holding turnover member (120). When the first fixing member (210) and the second fixing member (220) respectively fix the first component (410) and the second component (420), the first pressure-holding turnover member (110) is located on the side of the first component (410) facing away from the second component (420), and the second pressure-holding turnover member (120) is located on the side of the second component (420) facing away from the first component (410); During the process of the first fixing member (210) and the second fixing member (220) approaching each other, the first component (410) and the second component (420) approach each other, and the first pressure-holding turnover member (110) and the second pressure-holding turnover member (120) approach each other so that the first pressure-holding turnover member (110) and the second pressure-holding turnover member (120) jointly press the first component (410) and the second component (420).

2. The assembly pressure-holding device according to claim 1, characterized in that The first pressure-holding turnover member (110) is provided with a first pressing structure, the second pressure-holding turnover member (120) is provided with a second pressing structure, the first pressing structure and the second pressing structure can cooperate with each other, and the first pressure-holding turnover member (110) and the second pressure-holding turnover member (120) can press the first component (410) and the second component (420) through the first pressing structure and the second pressing structure.

3. The assembly pressure-holding device according to claim 2, wherein The first pressing structure includes a first magnetic member (111), the second pressing structure includes a second magnetic member (121), and when the first pressure-holding turnover member (110) and the second pressure-holding turnover member (120) are opposite to each other, the first magnetic member (111) attracts the second magnetic member (121).

4. The assembly pressure-holding device according to claim 1, characterized in that, One of the first fixing member (210) and the first pressure-holding turnover member (110) is provided with an electromagnetic device (211), and the other is provided with a third magnetic member (112). When the first fixing member (210) carries the first pressure-holding turnover member (110) and the electromagnetic device (211) is in an energized state, the electromagnetic device (211) adsorbs the third magnetic member (112) so that the first fixing member (210) fixes the first pressure-holding turnover member (110).

5. The assembly pressure-holding device according to claim 4, wherein The first fixing member (210) is provided with a first limiting groove (212). When the first pressure-holding turnover member (110) is placed in the first limiting groove (212), the first pressure-holding turnover member (110) is in limiting cooperation with the groove wall surface of the first limiting groove (212), and the electromagnetic device (211) is opposite to the third magnetic member (112).

6. The assembly pressure-holding device according to claim 4, characterized in that, The assembly component (200) further includes a position detection element. The position detection element is disposed on at least one of the first fixing member (210) and the second fixing member (220). The position detection element is used to detect the relative position of the first fixing member (210) and the second fixing member (220), and the position detection element is communicatively connected to the electromagnetic device (211). When the position detection element detects that the first fixing member (210) and the second fixing member (220) move relatively to the assembly position, the electromagnetic device (211) is in a power-off state.

7. The assembly pressure-holding device according to claim 1, wherein The second fixing member (220) is provided with a second limiting groove (221) and a first receiving groove (222) that are communicated with each other. The first receiving groove (222) is used to receive the second component (420), and the second limiting groove (221) is opened on a side of the first receiving groove (222) facing the first fixing member (210). When the first fixing member (210) fixes the first component (410) and the first fixing member (210) and the second fixing member (220) approach each other, the first component (410) extends into the second limiting groove (221), and the first component (410) is in limiting cooperation with the groove wall surface of the second limiting groove (221).

8. The assembly pressure-holding device according to claim 1, characterized in that, The assembly component (200) further includes a driving mechanism (230). The driving mechanism (230) is connected to at least one of the first fixing member (210) and the second fixing member (220). The driving mechanism (230) can drive at least one of the first fixing member (210) and the second fixing member (220) to move, so that the first fixing member (210) and the second fixing member (220) approach each other or move away from each other.

9. The assembly pressure-holding device according to claim 1, wherein The assembly component (200) further includes a first guiding member (213) and a second guiding member (223). The first guiding member (213) is connected to the first fixing member (210), and the second guiding member (223) is connected to the second fixing member (220). The first guiding member (213) and the second guiding member (223) are in guiding cooperation in a first direction, and the first direction is the direction in which the first fixing member (210) and the second fixing member (220) approach each other or move away from each other.

10. The assembly pressure-holding device according to claim 1, wherein The assembly pressure-maintaining device also includes a pressure-maintaining component (300), wherein the pressure-maintaining component (300) includes a first pressure-maintaining part (310) and a second pressure-maintaining part (320). The assembly component (200) is used to assemble the first component (410) and the second component (420) to form a product module (400). The product module (400) can be placed between the first pressure-maintaining part (310) and the second pressure-maintaining part (320) when the first pressure-maintaining rotatable part (110) and the second pressure-maintaining rotatable part (120) are pressed together, so that the first pressure-maintaining part (310) and the second pressure-maintaining part (320) press the product module (400).

11. The assembly pressure holding device according to claim 10, characterized in that, The first pressure-maintaining component (310) is provided with a first opening (311), and the second pressure-maintaining component (320) is provided with a second opening (321). When the product module (400) is located between the first pressure-maintaining component (310) and the second pressure-maintaining component (320), the first pressure-maintaining rotatable component (110) passes through the first opening (311), and the second pressure-maintaining rotatable component (120) passes through the second opening (321). The first pressure-maintaining rotatable component (110) can be separated from the first component (410) through the first opening (311), and the second pressure-maintaining rotatable component (120) can be separated from the second component (420) through the second opening (321).

12. The assembly pressure-holding device according to claim 10, wherein, At least one of the first pressure-maintaining member (310) and the second pressure-maintaining member (320) is provided with a second accommodating groove (322) for accommodating the product module (400); in the direction in which the edge of the second accommodating groove (322) extends, the first pressure-maintaining member (310) is provided with a plurality of fourth magnetic members (313) at intervals, and the second pressure-maintaining member (320) is provided with a plurality of fifth magnetic members (323) at intervals, When the first pressure-maintaining component (310) and the second pressure-maintaining component (320) are pressed together to form the product module (400), the fourth magnetic component (313) and the fifth magnetic component (323) are attracted to each other in a one-to-one correspondence.

13. An assembly pressure-holding method, applied to the assembly pressure-holding device according to any one of claims 1-12, characterized in that, The method comprises: Fixing the first component (410) and the second component (420) to the first fixing member (210) and the second fixing member (220), respectively; The first pressure-maintaining rotatable component (110) and the second pressure-maintaining rotatable component (120) are respectively arranged on opposite sides of the first component (410) and the second component (420); The first fixing member (210) and the second fixing member (220) are controlled to approach each other to assemble the first component (410) and the second component (420). At the same time, the first pressure-maintaining rotatable member (110) and the second pressure-maintaining rotatable member (120) are controlled to approach each other to press the first component (410) and the second component (420).

14. The assembly pressure-holding method according to claim 13, characterized in that, The method further comprises: After the first component (410) and the second component (420) are assembled, a product module (400) is formed. In a state where the product module (400) is jointly pressed by the first pressure-holding turnover part (110) and the second pressure-holding turnover part (120), the first pressure-holding part (310) and the second pressure-holding part (320) are used to press the product module (400) from both sides of the product module (400).

15. The assembly pressure holding method according to claim 14, wherein The method further includes: During the process of the first pressure-holding part (310) and the second pressure-holding part (320) pressing the product module (400), the first pressure-holding turnover part (110) and the second pressure-holding turnover part (120) are disassembled.

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