Turnover device for processing of type-c interface

Abstract

The present disclosure relates to a turnover device for Type-C interface processing, comprising a rack, a lifting mechanism, a workbench, a turnover mechanism and a rotating visual ring. The lifting mechanism comprises a height adjusting member and a first driving member, the height adjusting member is movably connected with the rack along the vertical direction, and the first driving member is installed on the rack and connected with the height adjusting member; the workbench is connected with the height adjusting member; the turnover mechanism comprises a second driving member and a bearing structure, the second driving member is installed on the workbench and connected with the bearing structure, the second driving member is used for driving the bearing structure to rotate, the bearing structure comprises a bearing plate, the bearing plate is formed with a clamping hole for fixing the Type-C interface, and both ends of the clamping hole are open to expose both ends of the Type-C interface; the rotating visual ring is sleeved on the bearing structure, and the projection of the bearing structure along the axial direction of the rotating visual ring is located in the projection of the rotating visual ring along the axial direction.

Description

TECHNICAL FIELD

[0001] The present disclosure relates to Type C interface manufacturing technology field, in particular, relates to a turnover device for Type C interface processing. BACKGROUND

[0002] For the need of data exchange, electronic equipment almost provides USB interface, and Type C interface is a USB interface appearance standard, the biggest feature in appearance is that its upper and lower ends are completely consistent, compared with Micro USB, which means that users no longer need to distinguish the front and back of USB, and can be inserted in both directions. Therefore, the two sides of Type C interface need to be welded.

[0003] In the related art, the two sides of Type C interface need to be welded by welding device respectively, since the position of welding device is fixed, after welding one side of Type C interface successfully, Type C interface needs to be turned over manually, so that welding device can weld the other side of Type C interface, the production efficiency is low, and in the process of turning over Type C interface manually, Type C interface position may change and misalign with welding device, thereby affecting the welding precision of Type C interface. SUMMARY

[0004] The purpose of the present disclosure is to provide a turnover device for Type C interface processing, the turnover device is beneficial to improve production efficiency and guarantee the welding precision of Type C interface.

[0005] In order to achieve the above purpose, the present disclosure provides a turnover device for Type C interface processing, comprising:

[0006] A rack;

[0007] A lifting mechanism comprising a height adjusting member and a first driving member, the height adjusting member is movably connected with the rack in vertical direction, the first driving member is installed on the rack and connected with the height adjusting member, and the first driving member is used to drive the height adjusting member to move;

[0008] A workbench connected to the height adjusting member;

[0009] The turnover mechanism comprises a second driving member and a bearing structure, the second driving member is installed on the workbench and connected with the bearing structure, the second driving member is used to drive the bearing structure to rotate around a rotation axis extending along a first horizontal direction, the bearing structure comprises a bearing plate, the bearing plate is provided with a card hole of a Type C interface, both ends of the card hole are open to expose both ends of the Type C interface; and

[0010] A rotatable visual ring is sleeved on the bearing structure and can rotate coaxially with the bearing structure, a projection of the bearing structure along an axial direction of the rotatable visual ring is located within a projection of the rotatable visual ring along the axial direction of the rotatable visual ring.

[0011] Optionally, the rack is provided with a first limiting block and a second limiting block arranged opposite along the vertical direction, the height adjusting member is provided with a first abutting block, the first abutting block is located between the first limiting block and the second limiting block, and the first limiting block and the second limiting block are used to stop the first abutting block.

[0012] Optionally, a distance between the first limiting block and the second limiting block along the vertical direction is greater than or equal to a radius of the rotatable visual ring.

[0013] Optionally, the bearing structure further comprises an outer frame, a first shielding plate and a second shielding plate, the outer frame is connected with the second driving member, the rotatable visual ring is sleeved on the outer frame, the bearing plate, the first shielding plate and the second shielding plate are located within the outer frame, the bearing plate is located between the first shielding plate and the second shielding plate, the first shielding plate and the second shielding plate can move relative to the bearing plate, so that the first shielding plate can shield or expose a first open end of the card hole, and the second shielding plate can shield or expose a second open end of the card hole.

[0014] Optionally, the bearing structure further comprises a first air cylinder and a second air cylinder installed on the outer frame, the first air cylinder is connected with the first shielding plate and used to drive the first shielding plate to move, and the second air cylinder is connected with the second shielding plate and used to drive the second shielding plate to move.

[0015] Optionally, the turnover mechanism further comprises a turnover limiting structure, the turnover limiting structure comprises a turnover limiting block and a second abutting block, the turnover limiting block is coaxially connected with the bearing structure and extends away from the rotation axis, the second abutting block is connected with the workbench, the second abutting block comprises a first abutting part and a second abutting part, the first abutting part and the second abutting part are located on two sides of the rotation axis and are on the same straight line, and the turnover limiting block can abut against the first abutting part or the second abutting part during rotation of the bearing structure.

[0016] Optionally, the second abutting block is provided with a first elastic buffer and a second elastic buffer, at least part of the first elastic buffer protrudes from the first abutting part, at least part of the second elastic buffer protrudes from the second abutting part, the first elastic buffer and the second elastic buffer are used to contact the turnover limiting block, and the first elastic buffer and the second elastic buffer can be completely retracted into the second abutting block under the action of the turnover limiting block.

[0017] Optionally, the first driving member comprises a third cylinder, the third cylinder is mounted on the rack and connected with the height adjusting member.

[0018] The rack is provided with a sliding block extending in the vertical direction, and the height adjusting member is formed with a first sliding groove extending in the vertical direction, and the sliding block is slidingly connected in the first sliding groove.

[0019] Optionally, the rack comprises a base, a connecting plate, a sliding plate and a horizontal adjusting mechanism, the connecting plate extends in the vertical direction and slidingly cooperates with the height adjusting member, the connecting plate is mounted on the sliding plate, the sliding plate slidingly cooperates with the base in a second horizontal direction, and the horizontal adjusting mechanism can drive the sliding plate to reciprocate in the second horizontal direction.

[0020] Optionally, the base is formed with a second sliding groove extending in the second horizontal direction, the sliding plate is slidingly arranged in the second sliding groove, and the horizontal adjusting mechanism comprises a threaded rod, the threaded rod is axially locked and circumferentially rotatable mounted on the base, and one end of the threaded rod is threadedly connected with the sliding plate.

[0021] Through the above technical solution, in the process of welding two surfaces of the Type C interface, the Type C interface is placed in the clamping hole for fixation, the clamping hole fixes the Type C interface, and the Type C interface fixed in the clamping hole can expose the Type Both ends of the C interface (Type) (the welding surface of the C interface), and then the first driving component drives the height adjustment component to raise the worktable, so that the Type The C interface has been upgraded, and Type has been improved. The welding surface on the C-interface side is raised to a height suitable for welding by the welding device, allowing the Type-C interface to be welded. Welding is performed on the welding surface of the C interface side. Then, the second driving component drives the load-bearing structure to rotate, thereby adjusting the Type... The C interface is flipped, and the Type is made to... The welding surface on the other side of the Type-C interface is aligned with the welding device before processing, which effectively avoids manual processing of the Type-C interface. After flipping the C interface, Type In the case where the C interface is not aligned with the welding device, the Type... The purpose of allowing soldering on both sides of the Type-C interface after a single clamping is to improve production efficiency and ensure Type-C performance. Soldering precision of the C interface.

[0022] During this process, in order to prevent the second driving component from driving the load-bearing structure and causing the Type... During the rotation of the C-interface, interference occurs with the fixed welding device, causing the Type-C interface to rotate. Before the C-interface flips, the lifting mechanism first drives the height adjustment component via the first drive component to lower the worktable, thus lowering the flipping mechanism to prevent the second drive component from driving the load-bearing structure and the Type... During the rotation of the C-interface, interference with the welding device can occur. Furthermore, since the rotating viewing ring shows the rotation trajectory of the outer contour of the supporting structure, it allows for direct observation of whether the rotation trajectory of the flipping mechanism will pass through the welding device. This facilitates the determination of whether the flipping mechanism will interfere with the welding device during the flipping process. Therefore, during the descent of the flipping mechanism, the vertical positional relationship between the rotating viewing ring and the welding device can be observed to determine whether the supporting structure has descended to the appropriate position, effectively preventing interference and collision between the supporting structure and the welding device during rotation.

[0023] Other features and advantages of this disclosure will be described in detail in the following detailed description section. Attached Figure Description

[0024] The accompanying drawings are provided to further illustrate the present disclosure and form part of the specification. They are used together with the following detailed description to explain the present disclosure, but do not constitute a limitation thereof. In the drawings:

[0025] Figure 1 is a flip device for Type-C interface processing provided in an exemplary embodiment of the present disclosure is a perspective view of a flip device for Type-C interface processing;

[0026] Figure 2 is a flip device for Type-C interface processing provided in an exemplary embodiment of the present disclosure is a perspective view of a flip device for Type-C interface processing (different from the perspective view of Figure 1 );

[0027] Figure 3 is a flip device for Type-C interface processing provided in an exemplary embodiment of the present disclosure is a split view of the overall structure of a bearing structure and a flip limiting structure of a flip device for Type-C interface processing.

[0028] Explanation of reference numerals

[0029] 1, rack; 101, base; 102, connecting plate; 103, sliding plate; 104, threaded rod; 2, lifting mechanism; 201, height adjusting piece; 202, third cylinder; 3, workbench; 4, flip mechanism; 401, second driving piece; 402, bearing structure; 4021, bearing plate; 4022, outer frame; 4023, first shielding plate; 4024, second shielding plate; 4025, first cylinder; 4026, second cylinder; 403, flip limiting structure; 4031, flip limiting block; 4032, second abutting block; 40321, first abutting portion; 40322, second abutting portion; 5, clamping hole; 6, rotatable visual ring; 7, first limiting block; 8, second limiting block; 9, first abutting block; 10, first elastic buffer; 11, second elastic buffer; 12, sliding block; 13, first sliding groove; 14, second sliding groove. DETAILED DESCRIPTION

[0030] The specific embodiments of the present disclosure will be described in detail below with reference to the accompanying drawings. It should be understood that the specific embodiments described herein are merely intended to illustrate and explain the present disclosure, and are not intended to limit the present disclosure.

[0031] In the present disclosure, the orientation words such as “up, down” used herein generally refer to the up and down of the corresponding components in the direction of gravity in the use state, and “inner, outer” refers to the inner and outer of the outline of each component, wherein the “first horizontal direction” is the X direction in Figure 1 , the “second horizontal direction” is the Y direction in Figure 1 , and the “vertical direction” is the Z direction in Figure 1 , and “first”, “second” are used to distinguish one element from another.

[0032] As Figures 1 to 3As shown, this disclosure provides a method for Type The flipping device for C-interface processing includes a frame 1, a lifting mechanism 2, a worktable 3, a flipping mechanism 4, and a rotating viewing ring 6. The lifting mechanism 2 includes a height adjustment component 201 and a first driving component. The height adjustment component 201 is movably connected to the frame 1 in a vertical direction. The first driving component is mounted on the frame 1 and connected to the height adjustment component 201, and is used to drive the height adjustment component 201 to move. The worktable 3 is connected to the height adjustment component 201. The flipping mechanism 4 includes a second driving component 401 and a supporting structure 402. The second driving component 401 is mounted on the worktable 3 and connected to the supporting structure 402, and is used to drive the supporting structure 402 to rotate about a rotation axis extending in a first horizontal direction. The supporting structure 402 includes a supporting plate 4021, on which a feature for fixing the Type... The Type-C interface has a SIM card slot 5, with both ends of the slot 5 open to expose the Type-C connector. The two ends of the C interface; the rotating visible ring 6 is fitted on the support structure 402 and can rotate coaxially with the support structure 402, and the projection of the support structure 402 along the axis of the rotating visible ring 6 is located within the projection of the rotating visible ring 6 along its axis.

[0033] Through the above technical solutions, in the case of Type During the double-sided soldering process of the C interface, the Type The Type-C interface is placed in slot 5 for fixation, and is fixed to the Type-C interface in slot 5. The C interface can expose the Type. Both ends of the C interface (Type) (the welding surface of the C interface), and then the first driving component drives the height adjustment component 201 to raise the worktable 3, so that the Type The C interface has been upgraded, and Type has been improved. The welding surface on the C-interface side is raised to a height suitable for welding by the welding device, allowing the Type-C interface to be welded. Welding is performed on the welding surface of the C interface side. Then, the second driving component 401 drives the supporting structure 402 to rotate, so as to adjust the Type... The C interface is flipped, and the Type is made to... The welding surface on the other side of the Type-C interface is aligned with the welding device before processing, which effectively avoids manual processing of the Type-C interface. After flipping the C interface, Type In the case where the C interface is not aligned with the welding device, the Type... The purpose of allowing soldering on both sides of the Type-C interface after a single clamping is to improve production efficiency and ensure Type-C performance. The welding precision of the C interface.

[0034] In this process, in order to avoid the second driving member 401 driving the bearing structure 402 and driving the Type-C interface to rotate, the bearing structure 402 is lowered to a position where the Type-C interface is not interfered by the second driving member 401. In the process of rotating the C interface, interference occurs with the fixed welding device, and in the process of driving the Type-C interface to rotate by the bearing structure 402, interference occurs with the welding device. Therefore, the lifting mechanism 2 is provided with a first driving member and a second driving member. Before the Type-C interface is flipped, the lifting mechanism 2 first drives the height adjusting member 201 through the first driving member to lower the workbench 3, so that the flipping mechanism 4 is lowered, to avoid the second driving member 401 driving the bearing structure 402 and driving the Type-C interface to rotate. In the process of rotating the C interface, interference occurs with the welding device. And since the rotating visual ring 6 can show the rotating track of the outer contour of the bearing structure 402, that is, the rotating visual ring 6 can intuitively observe whether the rotating track of the flipping mechanism 4 when rotating will pass through the welding device, so as to judge whether the flipping mechanism 4 will interfere with the welding device in the flipping process, therefore, in the process of lowering the flipping mechanism 4, the up-and-down positional relationship between the rotating visual ring 6 and the welding device can be observed, so as to judge whether the bearing structure 402 is lowered to a proper position, thereby effectively avoiding interference and collision between the bearing structure 402 and the welding device in the process of rotating.

[0035] It should be noted that since the position of the welding device is fixed, the flipping device can be moved to the welding device before processing the Type-C interface, and the clamping hole 5 for fixing the Type-C interface is aligned with the welding head of the welding device in the vertical direction, or the flipping device can be fixed at the welding device, and the clamping hole 5 for fixing the Type-C interface is directly aligned with the welding head of the welding device in the vertical direction. The clamping hole 5 for fixing the Type-C interface is directly aligned with the welding head of the welding device in the vertical direction. And the clamping hole 5 arranged on the bearing plate 4021 is aligned with the welding head of the welding device before and after the bearing structure 402 is flipped, that is, the Type-C interface fixed in the clamping hole 5 can be aligned with the welding head of the welding device on both sides of the Type-C interface. The clamping hole 5 for fixing the Type-C interface is directly aligned with the welding head of the welding device in the vertical direction. And the clamping hole 5 arranged on the bearing plate 4021 is aligned with the welding head of the welding device before and after the bearing structure 402 is flipped, that is, the Type-C interface fixed in the clamping hole 5 can be aligned with the welding head of the welding device on both sides of the Type-C interface. The clamping hole 5 for fixing the Type-C interface is directly aligned with the welding head of the welding device in the vertical direction. And the clamping hole 5 arranged on the bearing plate 4021 is aligned with the welding head of the welding device before and after the bearing structure 402 is flipped, that is, the Type-C interface fixed in the clamping hole 5 can be aligned with the welding head of the welding device on both sides of the Type-C interface. The clamping hole 5 for fixing the Type-C interface is directly aligned with the welding head of the welding device in the vertical direction. And the clamping hole 5 arranged on the bearing plate 4021 is aligned with the welding head of the welding device before and after the bearing structure 402 is flipped, that is, the Type-C interface fixed in the clamping hole 5 can be aligned with the welding head of the welding device on both sides of the Type-C interface.

[0036] Optionally, the rack 1 is formed with a first limiting block 7 and a second limiting block 8 arranged opposite in the vertical direction, and the height adjusting member 201 is formed with a first abutting block 9, the first abutting block 9 is located between the first limiting block 7 and the second limiting block 8, and the first limiting block 7 and the second limiting block 8 are used to stop the first abutting block 9. In the process of lowering the Type-C interface, the first abutting block 9 is used to abut against the first limiting block 7 and the second limiting block 8, so as to stop the height adjusting member 201. After one side of the Type-C interface is processed, the bearing structure 402 needs to drive the Type-C interface to flip to process the other side of the Type-C interface. After one side of the Type-C interface is processed, the bearing structure 402 needs to drive the Type-C interface to flip to process the other side of the Type-C interface. When the other side of the C interface is processed, in order to make the carrying structure 402 stop descending after descending to a proper height, so that the carrying structure 402 has enough rotating space to avoid interference with the welding device, the second limiting block 8 can abut against the first abutting block 9 during the descending process of the carrying structure 402, and prevent the carrying structure 402 from continuing to descend, so as to facilitate the carrying structure 402 to descend to a proper height. Here, descending to a proper height refers to the height at which the carrying structure 402 does not interfere with the welding device during the rotating process. When the C interface is welded by the welding device and needs to ascend, in order to make the carrying structure 402 ascend to a proper height, the first limiting block 7 can abut against the first abutting block 9 during the ascending process of the carrying structure 402, and prevent the carrying structure 402 from continuing to ascend, so as to facilitate the carrying structure 402 to ascend to a proper height. Here, ascending to a proper height refers to the height at which the C interface can be welded by the welding device and does not collide with the welding device. When the C interface collides with the welding device during the ascending process, the first limiting block 7 can abut against the first abutting block 9 during the ascending process of the carrying structure 402, and prevent the carrying structure 402 from continuing to ascend, so as to facilitate the carrying structure 402 to ascend to a proper height. Here, ascending to a proper height refers to the height at which the C interface can be welded by the welding device and does not collide with the welding device. When the C interface collides with the welding device during the ascending process, the first limiting block 7 can abut against the first abutting block 9 during the ascending process of the carrying structure 402, and prevent the carrying structure 402 from continuing to ascend, so as to facilitate the carrying structure 402 to ascend to a proper height. Here, ascending to a proper height refers to the height at which the C interface can be welded by the welding device and does not collide with the welding device.

[0037] In addition, the abutting surface of the first abutting block 9, the abutting surface of the first limiting block 7 and the abutting surface of the second limiting block 8 can all be provided with a buffer pad to reduce the impact when the first abutting block 9 abuts against the first limiting block 7 and the second limiting block 8 respectively.

[0038] Optionally, the distance between the first limiting block 7 and the second limiting block 8 in the vertical direction is greater than or equal to the radius of the rotating visual circle 6. Since the rotating visual circle 6 can show the rotating track of the outer contour of the carrying structure 402, that is, the radius of the rotating visual circle 6 is equal to the rotating radius of the carrying structure 402. In the case where the distance between the first limiting block 7 and the second limiting block 8 in the vertical direction is equal to the radius of the rotating visual circle 6, when the first abutting block 9 abuts against the first limiting block 7, the carrying structure 402 can just ascend to the height at which the C interface can be welded by the welding device. When the first abutting block 9 abuts against the second limiting block 8, the carrying structure 402 can just descend to the height at which the carrying structure 402 does not interfere with the welding device during the rotating process.

[0039] In addition, in the case where the distance between the first limiting block 7 and the second limiting block 8 in the vertical direction is greater than the radius of the rotating visual circle 6, when the first abutting block 9 abuts against the first limiting block 7, the carrying structure 402 still just ascends to the height at which the C interface can be welded by the welding device. The C interface can be welded by the welding device to a height, and during the lowering of the bearing structure 402, because the distance between the first limiting block 7 and the second limiting block 8 in the vertical direction is greater than the radius of the rotating visual ring 6, after the bearing structure 402 is lowered to a height at which the bearing structure 402 does not interfere with the welding device during rotation, the bearing structure 402 still has a certain distance that can be lowered, so that the bearing structure 402 can be lowered to an appropriate height without the first abutting block 9 abutting against the second limiting block 8, and the bearing structure 402 can be lowered to the height at which the bearing structure 402 does not interfere with the welding device during rotation without the first abutting block 9 abutting against the second limiting block 8.

[0040] It should be noted that in the present disclosure, the two measures of setting the rotating visual ring 6 and the limiting cooperation of the first abutting block 9 with the first limiting block 7 and the second limiting block 8 to prevent the bearing structure 402 from interfering with the welding device can be used separately or in combination. As an exemplary embodiment, when the distance between the first limiting block 7 and the second limiting block 8 in the vertical direction is greater than the radius of the rotating visual ring 6, and during the lowering of the bearing structure 402, the position of the rotating visual ring 6 can be observed to determine whether the bearing structure 402 is lowered to a height at which the bearing structure 402 does not interfere with the welding device during rotation, and it is not necessary to determine by the abutting of the first abutting block 9 against the second limiting block 8.

[0041] In order to avoid the Type C interface from falling out of the clamping hole 5 during the welding process of the Type C interface, or the Type C interface from falling out of the clamping hole 5 during the rotation of the bearing structure 402. Optionally, the bearing structure 402 further comprises an outer frame 4022, a first shielding plate 4023, and a second shielding plate 4024, the outer frame 4022 is connected with the second driving member 401, the rotating visual ring 6 is sleeved on the outer frame 4022, the bearing plate 4021, the first shielding plate 4023, and the second shielding plate 4024 are all located in the outer frame 4022, the bearing plate 4021 is located between the first shielding plate 4023 and the second shielding plate 4024, and the first shielding plate 4023 and the second shielding plate 4024 can move relative to the bearing plate 4021, so that the first shielding plate 4023 can shield or expose the first open end of the clamping hole 5, and the second shielding plate 4024 can shield or expose the second open end of the clamping hole 5.

[0042] Thus, during the welding process of the Type The upper side of the C interface is welded; the second shielding plate 4024 is moved so that the second shielding plate 4024 shields the second open end of the card hole 5, so as to shield the Type-C interface of the Type-C connector from the Type-A connector. The lower side of the C interface is abutted to avoid the Type-C connector from falling off the card hole 5 during processing of the Type-C connector. The Type-C connector is flipped by 180°, so as to weld the other side of the Type-C connector. In order to ensure that the Type-C connector is not damaged during the flipping process, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5.

[0043] Optionally, the bearing structure 402 further comprises a first air cylinder 4025 and a second air cylinder 4026 mounted on the outer frame 4022, the first air cylinder 4025 being connected with the first shielding plate 4023 and being used to drive the first shielding plate 4023 to move, and the second air cylinder 4026 being connected with the second shielding plate 4024 and being used to drive the second shielding plate 4024 to move. In this way, the first shielding plate 4023 can reciprocate under the driving of the first air cylinder 4025, so as to conveniently shield or expose the first open end of the card hole 5; the second shielding plate 4024 can reciprocate under the driving of the second air cylinder 4026, so as to conveniently shield or expose the second open end of the card hole 5.

[0044] The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The Type-C connector falls off the card hole 5 during processing of the Type-C connector. Here, the first shielding plate 4023 is above the bearing plate 4021, and the second shielding plate 4024 is below the bearing plate 4021. However, during processing of the Type-C connector, the first shielding plate 4023 and the second shielding plate 4024 are respectively moved to shield the first open end of the card hole 5 and the second open end of the card hole 5. The C interface is flipped by 180°. Optionally, the flipping mechanism 4 further comprises a flipping limiting structure 403, which comprises a flipping limiting block 4031 and a second abutting block 4032. The flipping limiting block 4031 is coaxially connected with the bearing structure 402 and extends away from the rotation axis. The second abutting block 4032 is connected with the workbench 3. The second abutting block 4032 comprises a first abutting part 40321 and a second abutting part 40322. The first abutting part 40321 and the second abutting part 40322 are located on two sides of the rotation axis and are on the same straight line. The flipping limiting block 4031 can abut against the first abutting part 40321 or the second abutting part 40322 during the rotation of the bearing structure 402. That is, when the flipping limiting block 4031 abuts against the first abutting part 40321, Type One side of the C interface can be aligned with the welding device. In Type After the processing of the side of the C interface, the Type The C interface is flipped. The flipping limiting block 4031 rotates with the bearing structure 402 and abuts against the second abutting part 40322, so that Type The C interface is flipped by 180° to ensure Type The other side of the C interface is aligned with the welding device.

[0045] As an exemplary embodiment, the second driving member 401 for driving the rotation of the bearing structure 402 can comprise a motor and a shaft coupling, etc. The motor used in the present disclosure is a motor that can realize forward and reverse rotation. That is, the motor can realize the reciprocating rotation of the bearing structure 402 within 180°.

[0046] To buffer the impact when the flipping limiting block 4031 abuts against the first abutment portion 40321 and the second abutment portion 40322, optionally, the second abutment block 4032 is provided with a first elastic buffer 10 and a second elastic buffer 11. At least a portion of the first elastic buffer 10 protrudes from the first abutment portion 40321, and at least a portion of the second elastic buffer 11 protrudes from the second abutment portion 40322. The first elastic buffer 10 and the second elastic buffer 11 are used to contact the flipping limiting block 4031, and the first elastic buffer 10 and the second elastic buffer 11 can be completely retracted into the second abutment block 4032 under the action of the flipping limiting block 4031. As an exemplary embodiment, both the first and second buffer elastic elements can include a spring and a soft rubber head connected to each other, wherein the spring is disposed in the second abutment block 4032, and the soft rubber head can protrude from the second abutment block 4032. After the soft rubber head comes into contact with the flipping limit block 4031, the spring is compressed, and the soft rubber head can be completely retracted into the second abutment block 4032 under the action of the flipping limit block 4031. When the soft rubber head is not in contact with the flipping limit block 4031, the soft rubber head can extend out of the second abutment block 4032 under the action of the spring.

[0047] Optionally, the first driving component includes a third cylinder 202, which is mounted on the frame 1 and connected to the height adjusting component 201. A slider 12 extending vertically is provided on the frame 1, and the height adjusting component 201 forms a first groove 13 extending vertically, with the slider 12 slidably connected within the first groove 13. Driving the height adjusting component 201 with the third cylinder 202 facilitates vertical lifting and lowering of the height adjusting component 201. Furthermore, the cooperation between the first groove 13 and the slider 12 ensures the stability of the height adjusting component 201 during lifting and lowering relative to the frame 1.

[0048] In order to enable multiple Types on the carrier plate 4021 For the C-interface processing, multiple fixed Type connectors can be formed on the carrier plate 4021 along the second horizontal direction. The C-interface has a 5-hole slot, which prevents the welding device from welding different positions of the Type connector in the second horizontal direction. Soldering is performed on the C interface, or, the 5-pin clip is used to fix different types of Type. After the C interface is fixed, Type The C interface deviates from the alignment position of the welding device in the second horizontal direction. Optionally, the rack 1 comprises a base 101, a connecting plate 102, a sliding plate 103 and a horizontal adjusting mechanism, the connecting plate 102 extends in the vertical direction and is in sliding fit with the height adjusting member 201, the connecting plate 102 is installed on the sliding plate 103, the sliding plate 103 is in sliding fit with the base 101 in the second horizontal direction, and the horizontal adjusting mechanism is capable of driving the sliding plate 103 to reciprocate in the second horizontal direction. By driving the sliding plate 103 to move in the second horizontal direction through the horizontal adjusting mechanism, the position of the C interface is adjusted to be aligned with the welding device. The position of the C interface is adjusted to be aligned with the welding device.

[0049] Optionally, the base 101 is formed with a second sliding groove 14 extending in the second horizontal direction, and the sliding plate 103 is slidingly arranged in the second sliding groove 14. The horizontal adjusting mechanism comprises a threaded rod 104, which is axially locked and circumferentially rotatable installed on the base 101, and one end of the threaded rod 104 is in threaded connection with the sliding plate 103. In this way, by rotating the threaded rod 104 clockwise or counterclockwise, the reciprocating movement of the sliding plate 103 in the second horizontal direction can be realized.

[0050] The preferred embodiments of the present disclosure are described in detail above in combination with the drawings, but the present disclosure is not limited to the specific details in the above-described embodiments. Within the technical concept of the present disclosure, various simple modifications can be made to the technical solutions of the present disclosure, and these simple modifications all belong to the protection scope of the present disclosure.

[0051] In addition, it should be noted that various specific technical features described in the above specific embodiments can be combined in any appropriate manner without contradiction, and in order to avoid unnecessary repetition, the present disclosure will not further describe various possible combinations.

[0052] In addition, various different embodiments of the present disclosure can also be combined in any appropriate manner, as long as they do not deviate from the idea of the present disclosure, and they should also be considered as disclosed by the present disclosure.

Claims

1. A method for Type A flipping device for C-interface processing, characterized in that... include: frame; The lifting mechanism includes a height adjusting component and a first driving component. The height adjusting component is movably connected to the frame in a vertical direction. The first driving component is mounted on the frame and connected to the height adjusting component. The first driving component is used to drive the height adjusting component to move. The worktable is connected to the height adjustment component; The flipping mechanism includes a second driving member and a supporting structure. The second driving member is mounted on the worktable and connected to the supporting structure. The second driving member drives the supporting structure to rotate about a rotation axis extending along a first horizontal direction. The supporting structure includes a supporting plate, on which are formed a form for fixing Type. The Type-C interface has a card slot, with both ends of the card slot open to expose the Type connector. Both ends of the C interface; as well as A rotating visible ring is fitted onto the supporting structure and can rotate coaxially with the supporting structure. The projection of the supporting structure along the axis of the rotating visible ring is located within the projection of the rotating visible ring along its axis.

2. The flipping device according to claim 1, characterized in that, The frame has a first limiting block and a second limiting block arranged opposite to each other along the vertical direction. The height adjustment member has a first abutting block, which is located between the first limiting block and the second limiting block. Both the first limiting block and the second limiting block are used to stop the first abutting block.

3. The flipping device according to claim 2, characterized in that, The distance between the first limiting block and the second limiting block along the vertical direction is greater than or equal to the radius of the visible rotation ring.

4. The flipping device according to claim 1, characterized in that, The supporting structure further includes an outer frame, a first shielding plate, and a second shielding plate. The outer frame is connected to the second driving member. The rotating visible ring is fitted onto the outer frame. The supporting plate, the first shielding plate, and the second shielding plate are all located inside the outer frame. The supporting plate is located between the first shielding plate and the second shielding plate. Both the first shielding plate and the second shielding plate are movable relative to the supporting plate, so that the first shielding plate can cover or expose the first open end of the card hole, and the second shielding plate can cover or expose the second open end of the card hole.

5. The flipping device according to claim 4, characterized in that, The supporting structure also includes a first cylinder and a second cylinder mounted on the outer frame. The first cylinder is connected to the first baffle and is used to drive the first baffle to move. The second cylinder is connected to the second baffle and is used to drive the second baffle to move.

6. The flipping device according to claim 1, characterized in that, The flipping mechanism further includes a flipping limiting structure, which includes a flipping limiting block and a second abutting block. The flipping limiting block is coaxially connected to the bearing structure and extends in a direction away from the rotation axis. The second abutting block is connected to the worktable and includes a first abutting part and a second abutting part. The first abutting part and the second abutting part are located on both sides of the rotation axis and are on the same straight line. The flipping limiting block can abut against the first abutting part or the second abutting part during the rotation of the bearing structure.

7. The flipping device according to claim 6, characterized in that, The second abutment block is provided with a first elastic buffer and a second elastic buffer. At least a portion of the first elastic buffer protrudes from the first abutment portion, and at least a portion of the second elastic buffer protrudes from the second abutment portion. The first elastic buffer and the second elastic buffer are used to contact the flip-limiting block, and the first elastic buffer and the second elastic buffer can be completely retracted into the second abutment block under the action of the flip-limiting block.

8. The flipping device according to any one of claims 1-7, characterized in that, The first driving component includes a third cylinder, which is mounted on the frame and connected to the height adjusting component; The frame is provided with a slider extending in the vertical direction, and the height adjustment member forms a first groove extending in the vertical direction, and the slider is slidably connected in the first groove.

9. The flipping device according to any one of claims 1-7, characterized in that, The frame includes a base, a connecting plate, a sliding plate, and a horizontal adjustment mechanism. The connecting plate extends along the vertical direction and slides in cooperation with the height adjustment component. The connecting plate is mounted on the sliding plate. The sliding plate slides in cooperation with the base along a second horizontal direction. The horizontal adjustment mechanism can drive the sliding plate to reciprocate along the second horizontal direction.

10. The flipping device according to claim 9, characterized in that, The base has a second sliding groove extending along the second horizontal direction. The sliding plate is slidably disposed in the second sliding groove. The horizontal adjustment mechanism includes a threaded rod, which is axially locked and circumferentially rotatable on the base. One end of the threaded rod is threadedly connected to the sliding plate.

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