Shaping device

Abstract

This application discloses a shaping device for shaping a frame to be shaped. The frame includes a first side frame, a second side frame, and a connecting side frame. The shaping device includes a base, a shaping mechanism, and a constraint component. The shaping mechanism is disposed on the base and includes a driving component, a shaping component, and a constraint component. The shaping component includes a first force-applying member and a second force-applying member. At least one of the first and second force-applying members is in transmission cooperation with the driving component. The first force-applying member is used to cooperate with the first side frame, and the second force-applying member is used to cooperate with the second side frame. The constraint component is used to constrain the deformation of the connecting side frame. Under the drive of the driving component, the first and second force-applying members move relative to each other, causing the first and second side frames to deform relative to each other, thereby shaping the frame to be shaped. The shaping device provided by this application can automatically shape the frame to be shaped, improving shaping efficiency.

Description

Technical Field

[0001] This application relates to the field of plastic surgery technology, and more particularly to a plastic surgery device. Background Technology

[0002] Currently, electronic devices typically include a metal frame, a display assembly, and a rear glass panel. The display assembly and the rear glass panel are assembled to opposite sides of the metal frame. The metal frame provides support and protection for the display assembly and the rear glass panel. Before assembly, the dimensions of the metal frame are controlled to ensure that the assembly dimensional tolerances meet the process quality requirements after the display assembly or the rear glass panel is assembled with the metal frame.

[0003] However, there is a possibility of deformation when the metal frame is assembled. For example, in actual production, the metal frame may have an inward concavity in its edge, which means that the size of the metal frame in the inward concavity direction is smaller. If it is directly assembled and bonded to the rear glass panel, the metal frame and the glass cannot be assembled. Utility Model Content

[0004] In view of this, this application provides a shaping device that can solve the above-mentioned technical problems.

[0005] A shaping device is used to shape a frame to be shaped. The frame to be shaped includes a first side frame, a second side frame, and a connecting side frame, the connecting side frame being connected between the first side frame and the second side frame. The shaping device includes a base, a shaping mechanism, and a constraint component. The shaping mechanism is disposed on the base and includes a driving component and a shaping component. The shaping component includes a first force-applying member and a second force-applying member, at least one of which is driven by the driving component. The first force-applying member is used to cooperate with the first side frame, and the second force-applying member is used to cooperate with the second side frame. Under the drive of the driving component, the first force-applying member and the second force-applying member move relative to each other, so as to deform the first side frame and the second side frame relative to each other, thereby shaping the frame to be shaped. The constraint component is driven by the driving component and includes a first constraint member, which is used to cooperate with the connecting side frame to constrain the deformation of the connecting side frame when the shaping component shapes the first side frame and the second side frame.

[0006] In some embodiments, the base has a first direction and a second direction, which are distinct from each other. The first force-applying member and the second force-applying member are arranged opposite to each other along the first direction. The first force-applying member is used to act on the inner side of the first frame, and the second force-applying member is used to act on the inner side of the second frame.

[0007] In some embodiments, the constraint component further includes a second constraint member, the first constraint member and the second constraint member being disposed opposite to each other along the second direction, the first constraint member and the second constraint member being used to constrain the outer side of the connecting frame.

[0008] In some embodiments, the driving assembly includes a driving member and a linkage member, the driving member and the linkage member being in kinetic engagement, the first force-applying member and the second constraint member being fixed relative to the base, the second force-applying member being in kinetic engagement with the linkage member, the constraint assembly further including a driven member, the first constraint member being disposed on the driven member, the driven member being in kinetic engagement with the linkage member, and under the drive of the driving member, the linkage member driving the second force-applying member and the first constraint member to move.

[0009] In some embodiments, the linkage member has a roller at one end facing the driven member, the driven member has an inclined surface on one side facing the roller, the roller abuts against the inclined surface, and the inclined surface is inclined relative to the first direction.

[0010] In some embodiments, the constraint assembly further includes an elastic element disposed on the driven member, the elastic element being used to keep the roller in contact with the inclined surface, thereby causing the first constraint member to abut against the connecting frame.

[0011] In some embodiments, the linkage has an extending direction, and there are two second force-applying components. Each second force-applying component includes a fixing plate and a plurality of support blocks. The fixing plates of the two second force-applying components are spaced apart along the extending direction. The fixing plates extend perpendicular to the direction of movement of the linkage and are fixedly connected to the linkage. The plurality of support blocks are spaced apart along the extending direction of the fixing plates to contact different parts of the second frame.

[0012] In some embodiments, the driving member is located between the two second force-applying members, the driving member is fixedly connected to the linkage member, and the driving member drives the linkage member to move along the first direction.

[0013] In some embodiments, the shaping mechanism further includes a support plate located on the side of the drive assembly away from the base. The support plate has a support surface away from the base for supporting the frame to be shaped. Both the first force-applying member and the second force-applying member protrude from the support surface.

[0014] In some embodiments, the shaping device further includes a connecting mechanism located between the support plate and the base, the connecting mechanism being used to fix the support plate and the base, the connecting mechanism including a plurality of connectors distributed around the drive assembly, each connector being connected to the support plate and the base.

[0015] The shaping device provided in this application includes a driving component and a shaping component. The shaping component includes a first force-applying member and a second force-applying member. By driving at least one of the first and second force-applying members with the driving component, the first force-applying member is used to cooperate with a first frame, and the second force-applying member is used to cooperate with a second frame. Under the drive of the driving component, the first and second force-applying members move relative to each other, so as to deform the first and second frames relative to each other, thereby shaping the frame to be shaped. The shaping device can control the movement direction and movement distance of the first and second force-applying members according to the deformation of the frame to be shaped, so as to perform adaptive shaping. At the same time, a constraint component is driven with the driving component. The constraint component includes a first constraint member, which is used to cooperate with a connecting frame to constrain the deformation of the connecting frame when the shaping component shapes the first and second frames. This can reduce the deformation of the connecting frame while shaping the first and second frames, thereby facilitating the restoration of the normal shape of the entire frame. For example, when the two opposite edges of the frame to be shaped are concave, the distance between the two concave edges is less than the preset distance. At this time, by controlling the first force-applying component and the second force-applying component to move away from each other, the two opposite edges of the frame to be shaped are deformed outward, thereby increasing the distance between the two concave edges to meet the preset distance. This makes it easier for the accessories to be assembled (e.g., display assembly or rear glass cover) to be smoothly assembled onto the shaped frame, meeting the process quality requirements. Attached Figure Description

[0016] Figure 1 This is a three-dimensional structural diagram of a shaping device provided in one embodiment of this application.

[0017] Figure 2 A partial structural diagram of the shaping device provided in one embodiment of this application. Figure 1 .

[0018] Figure 3 A partial structural diagram of the shaping device provided in one embodiment of this application. Figure 2 .

[0019] Figure 4 This is a schematic diagram illustrating the interaction between the shaping device and the workpiece according to one embodiment of this application.

[0020] Figure 5This is a partial exploded view of the shaping device provided in one embodiment of this application.

[0021] Key component symbols: Shaping device 100; base 10; shaping mechanism 20; support plate 21; support surface 21a; first through groove 22; second through groove 23; driving assembly 30; driving component 31; linkage component 32; roller 33; transmission component 34; shaping assembly 40; first force-applying component 41; second force-applying component 42; fixing plate 421; support block 422; constraint assembly 50; first constraint component 51; driven component 52; inclined surface 52a; elastic component 53; fixed seat 54; second constraint component 55; connecting mechanism 60; connecting component 61; frame to be shaped 70; first frame 71; second frame 72; connecting frame 73; first direction X; second direction Y.

[0022] The following detailed description, in conjunction with the accompanying drawings, will further illustrate this application. Detailed Implementation

[0023] To better understand the above-mentioned objectives, features, and advantages of the embodiments of this utility model, the present utility model will be described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the features in the embodiments of this application can be combined with each other.

[0024] The following description sets forth numerous specific details to provide a thorough understanding of the embodiments of this utility model. The described embodiments are only a portion, not all, of the embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without inventive effort are within the scope of protection of the embodiments of this utility model.

[0025] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which embodiments of this invention pertain. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the scope of the invention.

[0026] Please see Figure 1 and Figure 2 This application provides a shaping device 100, which is used to shape a frame 70 to be shaped (e.g., Figure 4 As shown), the frame to be shaped 70 includes a first border 71 and a second border 72.

[0027] The shaping device 100 includes a base 10 and a shaping mechanism 20, with the shaping mechanism 20 disposed on the base 10. The shaping mechanism 20 includes a drive assembly 30 and a shaping assembly 40. The shaping assembly 40 includes a first force-applying member 41 and a second force-applying member 42, at least one of which is in a transmission engagement with the drive assembly 30. The first force-applying member 41 is used to engage with the first frame 71 (e.g., ...). Figure 4 The second force-applying component 42 is used in conjunction with the second frame 72 (e.g., Figure 4 The first force-applying component 41 and the second force-applying component 42 move relative to each other under the drive of the drive component 30, so that the first frame 71 and the second frame 72 are deformed relative to each other, thereby shaping the frame 70 to be shaped.

[0028] Please see Figure 2 and Figure 4 The frame to be shaped 70 also includes a connecting border 73, which is connected between the first border 71 and the second border 72.

[0029] In some implementations, please refer to Figure 1 and Figure 2 The base 10 has a first direction X and a second direction Y, which are distinct. The first direction X can be the length direction of the base 10, and the second direction Y can be the width direction of the base 10. The first force-applying member 41 and the second force-applying member 42 are arranged opposite to each other along the first direction X. The first force-applying member 41 can be used to act on the inner side of the first frame 71, and the second force-applying member 42 is used to act on the inner side of the second frame 72.

[0030] As an example, when the two opposing sides of the frame to be shaped 70 undergo concave deformation, for example, when the first side 71 and the second side 72 are concave relative to each other, the distance between the first side 71 and the second side 72 is less than a preset distance. In this case, the frame to be shaped 70 can be fitted onto the first force-applying member 41 and the second force-applying member 42. Driven by the driving component 30, the second force-applying member 42 moves away from the first force-applying member 41, so that the first force-applying member 41 acts on the inner side of the first side 71 and the second force-applying member 42 acts on the inner side of the second side 72. The first force-applying member 41 and the second force-applying member 42 respectively push the first side 71 and the second side 72 of the frame to be shaped 70 apart in opposite directions, so that the distance between the first side 71 and the second side 72 increases to meet the preset distance, thereby correcting the concave deformation of the frame to be shaped 70.

[0031] In other embodiments, for example, when the two opposite sides of the frame 70 to be shaped undergo outward expansion deformation, such as when the first side 71 and the second side 72 undergo relative outward expansion deformation, the distance between the first side 71 and the second side 72 is greater than a preset distance. In this case, the frame 70 to be shaped can be placed between the first force-applying member 41 and the second force-applying member 42. Under the drive of the drive assembly 30, the second force-applying member 42 moves in the direction toward the first force-applying member 41, so that the first force-applying member 41 acts on the outside of the first side 71 and the second force-applying member 42 acts on the outside of the second side 72. The first force-applying member 41 and the second force-applying member 42 respectively clamp the first side 71 and the second side 72 toward the middle area of ​​the frame 70 to be shaped, so that the distance between the first side 71 and the second side 72 becomes smaller to meet the preset distance, thereby realizing the correction of the outwardly convex deformation of the first side 71 and the second side 72.

[0032] In this embodiment, the shaping mechanism 20 further includes a constraint component 50, which is in transmission cooperation with the drive component 30. The constraint component 50 includes a first constraint member 51, which is used to cooperate with the connecting frame 73 to constrain the deformation of the connecting frame 73 when the shaping component 40 shapes the first frame 71 and the second frame 72.

[0033] In some embodiments, the drive assembly 30 includes a drive member 31 and a linkage member 32, with the drive member 31 and the linkage member 32 engaging in a transmission relationship. The first force-applying member 41 remains fixed relative to the base 10, and the second force-applying member 42 engages in a transmission relationship with the linkage member 32. The constraint assembly 50 also includes a driven member 52, with the first constraint member 51 disposed on the driven member 52. The driven member 52 engages in a transmission relationship with the linkage member 32. Under the drive of the drive member 31, the linkage member 32, in cooperation with the drive member 31, drives the second force-applying member 42 and the first constraint member 51 to move.

[0034] Specifically, the driving component 31 can be a motor or a cylinder. The driving component 31 can drive the linkage component 32 to move along the first direction X, and the driven component 52 can move along the second direction Y. The linkage component 32 and the driven component 52 can be connected by an intermediate transmission structure or a guide cooperation structure. When the driving member 31 drives the second force-applying member 42 to move, the second force-applying member 42 is relatively far away from or close to the first force-applying member 41. For example, the second force-applying member 42 acts on the inner side of the second frame 72. When the driving member 31 drives the first force-applying member 41 and the second force-applying member 42 to move away from each other, the first force-applying member 41 and the second force-applying member 42 respectively open the first frame 71 and the second frame 72 of the frame to be shaped, thereby correcting the inward deformation of the frame to be shaped. At the same time, the linkage member 32 can constrain the connecting frame 73 with the first constraint member 51. The first constraint member 51 can apply a force to the outside of the connecting frame 73 to limit the outward expansion deformation of the connecting frame 73, so that the entire frame to be shaped 70 can be restored to the required shape during the shaping process.

[0035] In some implementations, please refer to Figure 3 and Figure 5 The linkage 32 has a roller 33 at one end facing the driven member 52. The side of the driven member 52 facing the roller 33 is an inclined surface 52a, which abuts against the roller 33. The inclined surface 52a is inclined relative to the first direction X. The linkage 32 abuts against the driven member 52, so that when the linkage 32 moves, it can drive the driven member 52 to move. The inclination angle of the inclined surface 52a relative to the first direction X can be an acute angle or an obtuse angle. For example, when the linkage 32 moves towards the second frame 72 along the first direction X, the roller 33 moves relative to the inclined surface 52a. The roller 33 generates an oblique force on the inclined surface 52a, which generates a component force along the second direction Y, thereby causing the driven member 52 to move along the second direction Y. This causes the first constraint member 51 to move towards the outside of the connecting frame 73 to constrain the connecting frame 73. The cooperation between the inclined plane 52a and the roller 33 makes the transmission between the linkage 32 and the driven member 52 smoother. It also enables the movement of the linkage 32 along the first direction X to be converted into the movement of the driven member 52 along the second direction Y. This means that while shaping the first frame 71 and the second frame 72, it also constrains the connecting frame 73, thereby restoring the entire frame 70 to be shaped to the required shape.

[0036] In some embodiments, the constraint assembly 50 further includes an elastic element 53 disposed on the driven member 52. The elastic element 53 is used to keep the roller 33 in contact with the inclined surface 52a, thereby causing the first constraint member 51 to abut against the connecting frame 73.

[0037] Specifically, the constraint assembly 50 may further include a fixed base 54, which is fixed to the surface of the base 10 facing the drive assembly 30. One end of the elastic member 53 passes through and is fixed in the fixed base 54, and the other end of the elastic member 53 is fixedly connected to the driven member 52. When the elastic member 53 is compressed between the fixed base 54 and the driven member 52, the elastic member 53 can provide a holding force to the inclined surface 52a of the driven member 52, so that the inclined surface 52a remains in contact with the roller 33.

[0038] In some embodiments, the elastic element 53 can be a spring or elastic rubber. Specifically, taking a spring as an example, the elastic element 53 has a first end and a second end. The first end of the elastic element 53 is fixed to the fixed base 54, and the second end is fixed to the driven member 52. The linkage member 32, the driven member 52, and the fixed base 54 are arranged approximately sequentially along the second direction Y. When the elastic element 53 is compressed between the fixed base 54 and the driven member 52, the elastic element 53 generates a resisting force on the driven member 52 in the direction of the linkage member 32. This resisting force ensures that the inclined surface 52a of the driven member 52 and the roller 33 remain in contact. The inclined surface 52a can be inclined downward relative to the first force-applying member 41 towards the second force-applying member 42. When the linkage member 32 moves along the direction of the first force-applying member 41 towards the second force-applying member 42, the contact point between the roller 33 and the inclined surface 52a also moves downward along the inclined surface 52a. As the contact point between the roller 33 and the inclined plane 52a moves downward, the compressed elastic element 53 is partially released. The elastic force released by the elastic element 53 pushes the driven element 52 towards the linkage element 32 to keep the inclined plane 52a and the roller 33 in contact. Simultaneously, as the driven element 52 moves towards the linkage element 32, it causes the first constraint element 51 located on the driven element 52 to move towards the connecting frame 73 and abut against the outside of the connecting frame 73, thus constraining the connecting frame 73 and limiting its outward expansion deformation. This allows the entire frame 70 to be shaped to return to the desired shape during the shaping process.

[0039] Furthermore, in some embodiments, the constraint assembly 50 further includes a second constraint member 55. The first constraint member 51 and the second constraint member 55 are disposed opposite each other along a second direction Y, and the first constraint member 51 and the second constraint member 55 are used to constrain the outer side of the connecting frame 73. The second constraint member 55 can be driven by the drive member 31 or kept fixed relative to the base 10. In some embodiments, the second constraint member 55 is kept fixed relative to the base 10, and the first constraint member 51 moves in the direction toward the second constraint member 55 under the drive of the drive member 52. The first constraint member 51 and the second constraint member 55 cooperate with each other to constrain the deformation of the connecting frame 73.

[0040] For example, when the second constraint 55 can be fixed relative to the base 10, as an example, when the frame 70 to be shaped undergoes concave deformation, it can be corrected by fitting the frame 70 to be shaped onto the first force-applying member 41 and the second force-applying member 42. The first force-applying member 41 is located inside the first frame 71, and the second force-applying member 42 is located inside the second frame 72. At the same time, the two connecting frame 73 of the frame 70 to be shaped are located inside the first constraint 51 and the second constraint 55, respectively. Driven by the driving member 31, the second force-applying member 42 moves away from the first force-applying member 41, causing the first force-applying member 41 to move away from the first force-applying member 41. The first force-applying member 41 acts on the inner side of the first frame 71, and the second force-applying member 42 acts on the inner side of the second frame 72. The first force-applying member 41 and the second force-applying member 42 respectively open the first frame 71 and the second frame 72. At the same time, the linkage member 32 can constrain one of the connecting frames 73 with the first constraint member 51 and constrain the other connecting frame 73 with the second constraint member 55. The first constraint member 51 can apply a force to the outer side of one of the connecting frames 73 and the second constraint member 55 can apply a force to the outer side of the other connecting frame 73, so as to simultaneously restrict the two connecting frames 73 of the frame to be shaped 70 from expanding outward.

[0041] In some embodiments, the linkage 32 has an extending direction, and there are two second force-applying members 42. Each second force-applying member 42 includes a fixing plate 421 and a plurality of support blocks 422. The fixing plates 421 of the two second force-applying members 42 are spaced apart along the extending direction and extend perpendicularly to the direction of movement of the linkage 32. The fixing plates 421 are fixedly connected to the linkage 32. The plurality of support blocks 422 are spaced apart along the extending direction of the fixing plates 421 for contacting different parts of the second frame 72. Specifically, the linkage 32 is generally rectangular and can be arranged along a first direction X. The fixing plates 421 of the two second force-applying members 42 are spaced apart along the first direction X and fixed to the linkage 32. Each fixing plate 421 is generally rectangular and extends along a second direction Y. A plurality of support blocks 422 are fixed on each fixing plate 421, and the plurality of support blocks 422 are spaced apart along the second direction Y. When the concave deformation of the frame 70 to be shaped is performed, the frame 70 to be shaped is placed on the first force-applying member 41 and the second force-applying member 42. Under the drive of the drive assembly 30, the second force-applying member 42 moves away from the first force-applying member 41, so that the first force-applying member 41 acts on the inner side of the first frame 71 and the second force-applying member 42 acts on the inner side of the second frame 72. At this time, multiple support blocks 422 act on different parts of the inner side of the second frame 72 to form balanced support, so that the corrected second frame 72 extends along the second direction Y, enhancing the correction effect.

[0042] In this embodiment, there are two first force-applying components 41, which extend approximately perpendicular to the direction of movement of the linkage 32. Each first force-applying component 41 corresponds one-to-one with each second force-applying component 42. For example, each first force-applying component 41 and one second force-applying component 42 can be arranged adjacently in a pair along the first direction X to form a shaping group, which is used to shape one frame 70 to be shaped; another first force-applying component 41 and another second force-applying component 42 can be arranged adjacently in a pair to form another shaping group, which is used to shape another frame 70 to be shaped. Both second force-applying components 42 can be driven by the linkage 32 and the drive component 31. This allows the shaping device 100 to simultaneously correct two frames 70 to be shaped, improving work efficiency. In other embodiments, the number of first force-applying components 41 and second force-applying components 42 corresponds and there can be multiple components.

[0043] In some embodiments, the driving member 31 is located between two second force-applying members 42, and the driving member 31 is fixedly connected to the linkage member 32. The driving member 31 drives the linkage member 32 to move along the first direction X.

[0044] Thus, by placing the driving member 31 between the two second force-applying members 42, the driving member 31 can effectively utilize the space between the two second force-applying members 42, so that when the driving member 31 drives the two second force-applying members 42, the forces on the left and right sides of the driving member 31 will be more balanced, so that the two frames 70 to be shaped can be shaped at the same time.

[0045] Specifically, the piston rod of the driving member 31 can be connected to the linkage member 32 via the transmission member 34, thereby achieving a fixed connection between the driving member 31 and the linkage member 32. The transmission member 34 can extend in a direction perpendicular to the direction of movement of the linkage member 32. One end of the transmission member 34 is fixedly connected to the driving member 31, and the other end of the transmission member 34 is fixedly connected to the linkage member 32. The linkage member 32 is located on one side of the driving member 31. The direction of movement of the piston rod of the driving member 31 and the extension direction of the linkage member 32 can both be set along the first direction X. The transmission member 34 extends in a direction perpendicular to the direction of movement of the linkage member 32. Specifically, the extension direction of the transmission member 34 is perpendicular to the first direction X. Both ends of the transmission member 34 are fixedly connected to the piston rod of the driving member 31 and the linkage member 32, respectively. When the piston rod of the driving member 31 moves in the first direction X, the linkage member 32, driven by the piston rod through the transmission member 34, can also move in the first direction X, thereby achieving the driving member 31 driving the linkage member 32 to move in the first direction X.

[0046] In some embodiments, the shaping mechanism 20 further includes a support plate 21 located on the side of the drive assembly 30 away from the base 10. The support plate 21 has a support surface 21a away from the base 10, which is used to support the frame 70 to be shaped. The first force-applying member 41 and the second force-applying member 42 both protrude from the support surface 21a.

[0047] Specifically, please refer to Figure 1 and Figure 2 The support plate 21 is provided with at least one first through groove 22, which penetrates the support plate 21. The support block 422 passes through the first through groove 22 and protrudes from the support surface 21a. The support plate 21 is provided with at least one second through groove 23, which penetrates the support plate 21. The first constraint member 51 passes through the second through groove 23 and protrudes from the support surface 21a.

[0048] The support plate 21 is used to provide positioning and support for the frame 70 to be shaped, ensuring the stability of the shaped frame 70 during the shaping process. In addition, a certain space is formed between the support plate 21 and the base 10 to cover the drive component 30, so as to reduce or avoid the drive component 30 from interfering with the shaped frame 70.

[0049] In some embodiments, the shaping device 100 further includes a connecting mechanism 60 located between the support plate 21 and the base 10. The connecting mechanism 60 is used to fix the support plate 21 and the base 10. The connecting mechanism 60 includes a plurality of connectors 61 distributed around the drive assembly 30, and each connector 61 is connected to the support plate 21 and the base 10. The connectors 61 serve to connect the support plate 21 and the base 10. The arrangement of multiple connectors 61 around the drive assembly 30 enhances the connection strength between the connectors 61 and the support plate 21 and the base 10. At the same time, the multiple connectors 61 are located on the outer periphery of the drive assembly 30, which can protect the drive assembly 30 from interference by external objects.

[0050] Please see Figures 1 to 5 The working process of the shaping device 100 provided in this application is as follows:

[0051] Taking the inward concavity of two opposite edges of a mobile phone metal frame as an example, when the shaping device 100 is in its initial state, the roller 33 on the linkage 32 abuts against the inclined surface 52a of the driven member 52. The frame to be shaped 70 is placed on the support surface 21a of the support plate 21, and the frame to be shaped 70 is fitted onto the first force-applying member 41 and the second force-applying member 42, so that the first edge 71 of the frame to be shaped 70 is located outside the first force-applying member 41, the second edge 72 is located outside the second force-applying member 42, and the two connecting edges 73 are located between the first constraint member 51 and the second constraint member 55.

[0052] The drive unit 31 is activated, driving the linkage unit 32 to move in the first direction X. The linkage unit 32, in cooperation with the drive unit 31, drives the second force-applying member 42 to move along the first direction X as well. When the second force-applying member 42 moves to contact the second frame 72, it abuts against the second frame 72 and pushes it away from the first force-applying member 41. Simultaneously, the first force-applying member 41 abuts against the inner side of the first frame 71. The cooperation of the first force-applying member 41 and the second force-applying member 42 provides external support for the first frame 71 and the second frame 72, thereby correcting the concavity of the first frame 71 and the second frame 72. Because the driven member 52 remains in contact with the linkage unit 32 under the action of the elastic member 53, when the linkage unit 32 moves along the first direction X, the roller 33 moves relative to the inclined plane 52a, causing the compressed elastic member 53 to push the driven member 52 and the first constraint member 51 on the driven member 52 towards the second constraint member 55. The first constraint member 51 and the second constraint member 55 cooperate to apply force to the outer side of the connecting frame 73, thereby constraining the connecting frame 73 to deform outward. Thus, while the first force-applying member 41 and the second force-applying member 42 correct the first frame 71 and the second frame 72, the first constraint member 51 and the second constraint member 55 respectively constrain the connecting frame 73.

[0053] After the shaping device 100 completes the correction of the frame 70 to be shaped, the driving member 31 drives the linkage member 32 to move in the opposite direction along the first direction X, that is, the second force-applying member 42 moves towards the first force-applying member 41. At the same time, the driven member 52 moves away from the linkage member 32 under the force of the linkage member 32, so that the first constraint member 51 moves away from the connecting frame 73, and the shaping device 100 returns to the initial state.

[0054] The shaping device 100 provided in this application includes a shaping mechanism 20 comprising a driving component 30 and a shaping component 40. The shaping component 40 includes a first force-applying member 41 and a second force-applying member 42. By driving at least one of the first force-applying member 41 and the second force-applying member 42 with the driving component 30, the first force-applying member 41 is used to cooperate with the first frame 71, and the second force-applying member 42 is used to cooperate with the second frame 72. Under the drive of the driving component 30, the first force-applying member 41 and the second force-applying member 42 move relative to each other, so that the first frame 71 and the second frame 72 are deformed relative to each other, thereby shaping the frame 70 to be shaped. The shaping device 100 can control the movement direction and movement distance of the first force-applying member 41 and the second force-applying member 42 according to the deformation of the frame 70 to be shaped, so as to perform adaptive shaping. Simultaneously, the constraint component 50 engages with the drive component 30 in a transmission cooperation. The constraint component 50 includes a first constraint member 51, which cooperates with the connecting frame 73 to constrain the deformation of the connecting frame 73 when the shaping component 40 shapes the first frame 71 and the second frame 72. This reduces the deformation of the connecting frame 73 while shaping the first frame 71 and the second frame 72, thus facilitating the restoration of the normal shape of the entire frame. For example, when the two opposite frames of the frame 70 to be shaped are concave, the distance between the two concave frames is less than a preset distance. In this case, by controlling the first force-applying member 41 and the second force-applying member 42 to move away from each other, the two opposite frames of the frame 70 to be shaped are deformed outward, thereby increasing the distance between the two concave frames to meet the preset distance. This allows the components to be assembled (e.g., display screen assembly or rear glass cover) to be smoothly assembled onto the shaped frame, meeting the process quality requirements.

[0055] The above embodiments are only used to illustrate the technical solutions of this application and are not intended to limit it. Although this application has been described in detail with reference to the above embodiments, those skilled in the art should understand that modifications or equivalent substitutions to the technical solutions of this application should not depart from the spirit and scope of the technical solutions of this application.

Claims

1. An orthopedic device, comprising: The shaping device is used to shape a frame to be shaped. The frame to be shaped includes a first side border, a second side border, and a connecting side border, wherein the connecting side border connects the first side border and the second side border. The shaping device includes: Base; A shaping mechanism, disposed on the base, includes a driving component and a shaping component. The shaping component includes a first force-applying member and a second force-applying member, at least one of which is in transmission cooperation with the driving component. The first force-applying member is used to cooperate with a first frame, and the second force-applying member is used to cooperate with a second frame. Under the drive of the driving component, the first and second force-applying members move relative to each other, causing the first and second frame to deform relative to each other, thereby shaping the frame to be shaped. A constraint component is provided, which is in transmission cooperation with the drive component. The constraint component includes a first constraint member, which is used to cooperate with the connecting frame to constrain the deformation of the connecting frame when the shaping component shapes the first frame and the second frame.

2. The orthopedic device of claim 1, wherein, The base has a first direction and a second direction, which are distinct from each other. The first force-applying member and the second force-applying member are arranged opposite to each other along the first direction. The first force-applying member is used to act on the inner side of the first frame, and the second force-applying member is used to act on the inner side of the second frame.

3. The orthopedic device of claim 2, wherein, The constraint component further includes a second constraint member, and the first constraint member and the second constraint member are disposed opposite to each other along the second direction. The first constraint member and the second constraint member are used to constrain the outer side of the connecting frame.

4. The orthopedic device of claim 3, wherein, The driving assembly includes a driving component and a linkage component. The driving component and the linkage component are in a transmission cooperation. The first force-applying component and the second constraint component are fixed relative to the base. The second force-applying component is in a transmission cooperation with the linkage component. The constraint assembly also includes a driven component. The first constraint component is disposed on the driven component. The driven component is in a transmission cooperation with the linkage component. Under the drive of the driving component, the linkage component drives the second force-applying component and the first constraint component to move.

5. The orthopedic device of claim 4, wherein, The linkage component has a roller at one end facing the driven component, and the side of the driven component facing the roller is an inclined surface. The roller abuts against the inclined surface, and the inclined surface is inclined relative to the first direction.

6. The orthopedic device of claim 5, wherein, The constraint assembly further includes an elastic element disposed on the driven member. The elastic element is used to keep the roller in contact with the inclined surface, thereby causing the first constraint member to abut against the connecting frame.

7. The orthopedic device of claim 4, wherein, The linkage has an extending direction. There are two second force-applying components. Each second force-applying component includes a fixing plate and multiple support blocks. The fixing plates of the two second force-applying components are spaced apart along the extending direction. The fixing plates extend perpendicular to the direction of movement of the linkage. The fixing plates are fixedly connected to the linkage. The multiple support blocks are spaced apart along the extending direction of the fixing plates to contact different parts of the second frame.

8. The orthopedic device of claim 7, wherein, The driving component is located between the two second force-applying components, and the driving component is fixedly connected to the linkage component. The driving component drives the linkage component to move along the first direction.

9. The orthopedic device of claim 1, wherein, The shaping mechanism further includes a support plate located on the side of the drive assembly away from the base. The support plate has a support surface away from the base, which is used to support the frame to be shaped. Both the first force-applying member and the second force-applying member protrude from the support surface.

10. The orthopedic device of claim 9, wherein, The shaping device further includes a connecting mechanism located between the support plate and the base. The connecting mechanism is used to fix the support plate and the base. The connecting mechanism includes multiple connectors distributed around the drive assembly. Each connector is connected to the support plate and the base.

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