Optical device pin bending and shearing integrated device

Abstract

An optical device pin bending and shearing integrated device, comprising: a fixed part provided with a first jack, the side wall of the first jack is provided with a first opening, and the fixed part is fixedly provided with a blocking structure on one side; a thrust part is slidably connected with the fixed part, and the sliding direction is perpendicular to the length direction of the pin, and the thrust part and the fixed part have a gap, the thrust part is provided with a second jack, and the side wall of the second jack is provided with a second opening; a shearing part is slidably connected with the fixed part and is attached to the thrust part; a linear drive mechanism and an adapter fixedly connected with the driving end of the linear drive mechanism, the thrust part is elastically connected with the adapter, the shearing part is fixedly connected with the adapter, the linear drive mechanism drives the thrust part and the shearing part to slide, the thrust part is blocked and stopped from sliding by the blocking structure after the pin is bent, the sliding distance is the bending stroke, the shearing part shears the pin when sliding the shearing stroke, the bending stroke is less than the shearing stroke, and the pin bending and shearing are completed on the same device.

Description

Technical Field

[0001] This utility model relates to the field of optical device manufacturing equipment technology, and in particular to an integrated device for bending and shearing optical device pins. Background Technology

[0002] Currently, the metal bases of mainstream optical devices on the market are designed to accommodate different sizes of PCBAs and packaging requirements. These optical devices are manufactured with vertical metal leads and a certain length margin, such as... Figure 10 As shown in the left-middle image, the process of making it into an optical module requires bending and cutting the metal pins of the base, such as... Figure 10 The image is shown in the middle right. Current technology requires bending and shearing of optical devices to be done manually, which is inefficient and results in low yield.

[0003] There is a need to develop a method that can perform pin bending and cutting on the same device to improve the manufacturing efficiency and quality of optical modules. Utility Model Content

[0004] In response to the shortcomings of the existing production technology, the applicant provides an integrated device for bending and cutting optical device leads, thereby enabling lead bending and cutting to be completed on the same device, improving the manufacturing efficiency and quality of optical modules.

[0005] The technical solution adopted in this utility model is as follows:

[0006] An integrated device for bending and shearing optical device leads, comprising:

[0007] The fixing part is provided with a first socket corresponding to the pin, the side wall of the first socket is provided with a first opening, and a blocking structure is fixed on one side of the fixing part;

[0008] The thrust part is slidably connected to the fixed part, and the sliding direction is perpendicular to the length direction of the pin. There is a gap between the thrust part and the fixed part. The thrust part is provided with a second socket corresponding to the first socket. The side wall of the second socket is provided with a second opening in the same direction as the first opening. The first opening and the second opening are used to remove the bent pin.

[0009] The shearing part is slidably connected to the fixing part and fits against the thrusting part in the same sliding direction. The thrusting part is located between the shearing part and the fixing part.

[0010] A linear drive mechanism and an adapter fixedly connected to the drive end of the linear drive mechanism, wherein the thrust part is elastically connected to the adapter and the shearing part is fixedly connected to the adapter;

[0011] Before the linear drive mechanism is started, the first and second sockets are aligned to insert the pins and support the optical device on the fixed part.

[0012] When the linear drive mechanism is activated, it drives the thrust section and the shear section to slide. The thrust section bends the pin and then stops sliding due to the blocking structure. The sliding distance is the bending stroke, which is L. When the shear section slides the shear stroke, it cuts the pin. The shear stroke is M, and L < M.

[0013] As a further improvement to the above technical solution:

[0014] It also includes a first connector fixedly connected to the thrust section, and a second connector fixedly connected to the shear section and the adapter. The end of the first connector is provided with a guide shaft, and the connection between the guide shaft and the first connector forms a boss structure.

[0015] The adapter is provided with a limiting countersunk hole, and the boss structure is located in the limiting countersunk hole, forming a limiting cavity between the boss structure and the bottom of the limiting countersunk hole. An elastic element is installed in the limiting cavity. A through hole is provided at the bottom of the limiting countersunk hole. The guide shaft is slidably engaged with the through hole. The sliding direction of the guide shaft is the same as the sliding direction of the thrust part. A limiting element is fixedly installed at the end of the guide shaft located outside the adapter, so that the elastic element is in a compressed state.

[0016] After the thrust is stopped by the blocking structure, the adapter continues to move under the drive of the linear drive mechanism, causing the guide shaft to slide relative to the through hole, which further compresses the elastic element. After the linear drive mechanism resets, the guide shaft resets under the elastic force of the elastic element.

[0017] The elastic element is a spring, which is sleeved on the guide shaft.

[0018] It also includes a side stop structure fixedly connected to the fixed part. The side stop structure is located at the other end of the sliding direction of the thrust part opposite to that of the blocking structure. After the linear drive mechanism is reset, the thrust part and the shear part simultaneously contact the blocking structure. The side stop structure is provided with a notch for avoiding the first connector and the second connector.

[0019] The linear drive mechanism is a cylinder, and the piston rod end of the cylinder is fixedly connected to the adapter.

[0020] It also includes a pneumatic foot switch and a first air pipe and a second air pipe connected to the pneumatic foot switch. The cylinder is a double-acting cylinder. The end of the first air pipe is connected to the first air port of the cylinder, and the end of the second air pipe is connected to the second air port of the cylinder. The pneumatic foot switch is connected to the air source through a third air pipe.

[0021] It also includes a fixing seat fixedly connected to the fixing part, and the fixing seat is provided with a first slide rail and a second slide rail that are parallel to each other;

[0022] The thrust section is fixedly provided with a first sliding section that is slidably connected to the first slide rail, the fixed seat is fixedly connected to the blocking structure, and the shearing section is fixedly provided with a second sliding section that is slidably connected to the second slide rail.

[0023] The first socket has a first arc-shaped chamfer at its end, and the second socket has a second arc-shaped chamfer at its end. The first arc-shaped chamfer and the second arc-shaped chamfer are located on both sides of the width direction of the gap, respectively.

[0024] It also includes a housing, in which the fixing part, the thrust part, the shearing part and the linear drive mechanism are all located. The housing is provided with a first clearance opening and a second clearance opening, which are connected for picking up and placing the optical device.

[0025] A recycling box can also be detachably installed on the housing, which is used to hold the scrap material of the cut-off pins.

[0026] The beneficial effects of this utility model are as follows:

[0027] This utility model has a compact and reasonable structure and is easy to operate. By arranging the fixing part of the fixed pin, the pushing part of the bent pin, and the cutting part of the cut pin in sequence along the pin length direction, the pushing part is elastically connected to the linear drive mechanism, and the cutting part is fixedly connected to the linear drive mechanism. This allows the same linear drive mechanism to drive two pushing parts and cutting parts with different strokes, realizing bending before cutting. The pin bending and cutting are completed on the same device, which improves the manufacturing efficiency and quality of optical modules.

[0028] This utility model also has the following advantages:

[0029] (1) The shaft and hole are slidably connected and an elastic element in the compressed state is provided in the shaft hole to elastically connect the thrust part and the adapter, so that the same linear drive mechanism drives two thrust parts and shear parts with different strokes, so that the shear part performs shearing after the thrust part completes bending, and the linear drive mechanism can automatically complete the synchronous reset of the thrust part and the shear part during the reset process.

[0030] (2) Set a side stop structure that is fixedly connected to the fixed part. The side stop structure is located at the other end of the sliding direction of the thrust part opposite to the blocking structure. After the linear drive mechanism is reset, the thrust part and the shear part contact the blocking structure at the same time. Based on the side stop structure, adjust the compression amount of the elastic element to determine the starting position of the thrust part.

[0031] (3) The end of the first socket is provided with a first arc chamfer, and the end of the second socket is provided with a second arc chamfer. The first arc chamfer and the second arc chamfer are located on both sides of the width direction of the gap, so as to avoid hard damage to the pin during bending. Attached Figure Description

[0032] Figure 1 This is a schematic diagram of the structure of this utility model.

[0033] Figure 2 This is a schematic diagram of the structure of this utility model (excluding the cover).

[0034] Figure 3 for Figure 2 The main view.

[0035] Figure 4 for Figure 2 The main view (after cutting).

[0036] Figure 5 This is an exploded view of the present invention.

[0037] Figure 6 This is a schematic diagram of the assembly structure of the first connecting member, the second connecting member, and the adapter of this utility model.

[0038] Figure 7 This is a schematic diagram of the thrust unit of this utility model.

[0039] Figure 8 This is a schematic diagram of the shearing part of this utility model.

[0040] Figure 9 This is a schematic diagram of the structure of the fixing base of this utility model.

[0041] Figure 10 This is a comparison image of the pins of this utility model before and after bending and cutting.

[0042] in:

[0043] 1. Pneumatic foot switch;

[0044] 2. Cover; 21. First clearance opening; 22. Second clearance opening; 23. Recycling box;

[0045] 3. Fixing part; 30. Blocking structure; 31. First insertion hole; 311. First arc-shaped chamfer; 301. Base; 302. Side blocking structure;

[0046] 4. Optical device; 41. Pin; 411. First parallel segment; 412. Second parallel segment;

[0047] 5. Thrust section; 51. Second insertion hole; 511. Second arc-shaped chamfer; 52. First sliding section;

[0048] 6. Shearing part; 61. Second sliding part;

[0049] 7. Fixed base; 71. First slide rail; 72. Second slide rail;

[0050] 81. First connecting member; 811. Guide shaft; 812. Boss structure; 813. Limiting member; 82. Second connecting member; 83. Adapter; 831. Limiting countersunk hole; 832. Elastic member;

[0051] 9. Linear drive mechanism; 91. First air tube; 92. Second air tube; 93. Third air tube. Detailed Implementation

[0052] The specific embodiments of this utility model are described below with reference to the accompanying drawings.

[0053] like Figures 2-4 As shown, an embodiment of the optical device pin bending and shearing integrated device of this application includes a fixing part 3, a thrust part 5, a shearing part 6, a linear drive mechanism 9, and an adapter 83 fixedly connected to the drive end of the linear drive mechanism 9.

[0054] The fixing part 3 is provided with a first socket 31 corresponding to the pin 41. The side wall of the first socket 31 is provided with a first opening. A blocking structure 30 is fixed on one side of the fixing part 3.

[0055] The thrust part 5 is slidably connected to the fixing part 3, and the sliding direction is perpendicular to the length direction of the pin 41. There is a gap between the thrust part 5 and the fixing part 3. The thrust part 5 is provided with a second insertion hole 51 corresponding to the first insertion hole 31. The side wall of the second insertion hole 51 is provided with a second opening in the same direction as the first opening. The first opening and the second opening are used to remove the bent pin 41.

[0056] The shearing part 6 is slidably connected to the fixing part 3 and is in contact with the thrusting part 5 with the same sliding direction. The thrusting part 5 is located between the shearing part 6 and the fixing part 3.

[0057] The linear drive mechanism 9 and the adapter 83 fixedly connected to the drive end of the linear drive mechanism 9, the thrust part 5 is elastically connected to the adapter 83, and the shearing part 6 is fixedly connected to the adapter 83.

[0058] Before the linear drive mechanism 9 is started, the first socket 31 and the second socket 51 are aligned to insert the pin 41 and support the optical device 4 on the fixing part 3.

[0059] When the linear drive mechanism 9 is started, it drives the thrust part 5 and the shearing part 6 to slide. The thrust part 5 bends the pin 41 and then stops sliding due to the blocking structure 30. The sliding distance is the bending stroke, which is L. When the shearing part 6 slides the shearing stroke, it shears the pin 41. The shearing stroke is M, and L < M.

[0060] like Figure 2 As shown, when the optical device 4 that needs to be bent and cut is placed on the device, the pin 41 can be inserted into the first socket 31 and the second socket 51 from the end of the first socket 31, or the pin 41 can be introduced into the socket from the side of the two sockets, namely the first opening and the second opening.

[0061] The thrusting part 5 and the shearing part 6, which move relative to the fixing part 3, are arranged along the length direction of the pin 41. The pin 41 is fixed based on the first insertion hole 31 on the fixing part 3. A thrust is applied to the pin 41 by the relative movement of the second insertion hole 51 on the thrusting part 5 with the first insertion hole 31, thereby forming a first parallel segment 411 at the first insertion hole 31 and a second parallel segment 412 at the second insertion hole 51. The thrust applied to the pin 41 by the thrusting part 5 causes the first parallel segment 411 and the second parallel segment 412 to misalign, forming a connecting segment at the gap, thus bending the pin 41 into shape. Figure 10 As shown.

[0062] like Figure 4 , Figure 7 As shown, the gap width is H. The end of the first socket 31 is provided with a first arc-shaped chamfer 311, and the end of the second socket 51 is provided with a second arc-shaped chamfer 511. The first arc-shaped chamfer 311 and the second arc-shaped chamfer 511 are located on both sides of the width direction of the gap, respectively. This avoids causing hard damage to the pin 41 during bending.

[0063] like Figure 10 As shown, after bending, the pin 41 forms an intersecting first parallel segment 411 and a second parallel segment 412 along the length direction. The distance between the first parallel segment 411 and the second parallel segment 412 along the length direction of the pin 41 is the bending length, which is D, where D > H.

[0064] The bending action described above is completed after the bending stroke of the thrust part 5 ends. Then, the shearing part 6 slides along the thrust part 5, and the blade of the shearing part 6 cuts off the excess part of the pin 41 along the mating surface of the shearing part 6 and the thrust part 5, forming the excess material of the pin 41.

[0065] After bending and shearing are completed, pin 41 is removed from the first and second openings, and then the linear drive mechanism 9 is reset. During the reset process of the linear drive mechanism 9, the shearing part 6 first moves with the drive end of the linear drive mechanism 9, and then the shearing part 6 and the thrust part 5 are simultaneously reset to their initial state.

[0066] Specifically, the number of the first socket 31 and the second socket 51 is related to the number of pins 41 on the optical device 4 that needs to be bent and cut, such as Figure 2As shown, the pins 41 on the optical device 4 are four pins 41 arranged in a rectangle. The number of the corresponding first socket 31 and second socket 51 are two. The radial cross-section of the first socket 31 and the second socket 51 is an oblong hole, which can accommodate two pins 41 at the same time.

[0067] By arranging the fixing part 3 of the fixed pin 41, the thrust part 5 of the bent pin 41, and the shearing part 6 of the shearing pin 41 sequentially along the length of the pin 41, the thrust part 5 is elastically connected to the linear drive mechanism 9, and the shearing part 6 is fixedly connected to the linear drive mechanism 9. This allows the same linear drive mechanism 9 to drive two thrust parts 5 and shearing parts 6 with different strokes, enabling bending before shearing. The bending and shearing of the pin 41 are completed on the same device, improving the manufacturing efficiency and quality of the optical module.

[0068] like Figure 3 , Figure 4 As shown, in another exemplary embodiment, the optical device pin bending and shearing integrated device further includes a first connector 81 fixedly connected to the thrust part 5, and a second connector 82 fixedly connected to the shearing part 6 and the adapter 83. The end of the first connector 81 is provided with a guide shaft 811, and a boss structure 812 is formed at the connection between the guide shaft 811 and the first connector 81.

[0069] The adapter 83 is provided with a limiting countersunk hole 831. The boss structure 812 is located inside the limiting countersunk hole 831 and forms a limiting cavity with the bottom of the limiting countersunk hole 831. An elastic element 832 is installed in the limiting cavity. A through hole is provided at the bottom of the limiting countersunk hole 831. The guide shaft 811 is slidably engaged with the through hole. The sliding direction of the guide shaft 811 is the same as the sliding direction of the thrust part 5. The limiting element 813 is fixedly installed at the end of the guide shaft 811 located outside the adapter 83, so that the elastic element 832 is in a compressed state.

[0070] After the thrust part 5 is stopped by the blocking structure 30, the adapter 83 continues to move under the drive of the linear drive mechanism 9, causing the guide shaft 811 to slide relative to the through hole, and the elastic member 832 to continue to compress. After the linear drive mechanism 9 is reset, the guide shaft 811 is reset under the elastic force of the elastic member 832.

[0071] Specifically, such as Figure 6 As shown, the limiting member 813 is a nut that is threadedly connected to the guide shaft 811; the first connecting member 81 and the second connecting member 82 are both rod-shaped, and the diameter of the guide shaft 811 is smaller than the diameter of the first connecting member 81, thus forming a boss structure 812.

[0072] When the linear drive mechanism 9 is started, the thrust part 5 and the shear part 6 move synchronously, and the thrust of the linear drive mechanism 9 is transmitted to the thrust part 5 under the elastic force of the elastic element 832.

[0073] like Figure 4 As shown, because the thrust part 5 is blocked by the blocking structure 30, it cannot move with the movement of the adapter 83, which causes the guide shaft 811 to slide and the elastic element 832 to be compressed. When the linear drive mechanism 9 drives the adapter 83 to move in the opposite direction, the guide shaft 811 is reset under the action of the restoring force of the elastic element 832, which in turn drives the thrust part 5 and the shear part 6 to complete the reset synchronously.

[0074] The thrust part 5 and the adapter part 83 are elastically connected by a sliding connection between the shaft and the hole and an elastic element 832 in a compressed state is provided in the shaft hole. This enables the same linear drive mechanism 9 to drive two thrust parts 5 and shear parts 6 with different strokes. After the thrust part 5 completes bending, the shear part 6 performs shearing. During the reset process of the linear drive mechanism 9, the thrust part 5 and the shear part 6 can be automatically reset synchronously.

[0075] In this embodiment, the elastic element 832 is a spring, which is sleeved on the guide shaft 811.

[0076] In another exemplary embodiment, such as Figure 3 , Figure 4 As shown, it also includes a side stop structure 302 fixedly connected to the fixing part 3. The side stop structure 302 is located at the other end of the sliding direction of the thrust part 5 opposite to that of the blocking structure 30. After the linear drive mechanism 9 is reset, the thrust part 5 and the shearing part 6 simultaneously contact the blocking structure 30. The side stop structure 302 is provided with a notch for avoiding the first connecting member 81 and the second connecting member 82.

[0077] Using the side guard structure 302 as a reference, the compression of the elastic element 832 is adjusted to determine the starting position of the thrust section 5. Specifically, the position of the limiting element 813 on the guide shaft 811 is adjusted.

[0078] In this embodiment, the linear drive mechanism 9 is a cylinder, and the piston rod end of the cylinder is fixedly connected to the adapter 83.

[0079] It also includes a pneumatic foot switch 1 and a first air pipe 91 and a second air pipe 92 connected to the pneumatic foot switch 1. The cylinder is a double-acting cylinder. The end of the first air pipe 91 is connected to the first air port of the cylinder, and the end of the second air pipe 92 is connected to the second air port of the cylinder. The pneumatic foot switch 1 is connected to the air source through the third air pipe 93.

[0080] Specifically, the pneumatic foot switch 1 is a commercially available product. When the pneumatic foot switch 1 is pressed, air enters through the first air pipe 91, and the linear drive mechanism 9 is activated. When the pneumatic foot switch 1 is released, air enters through the second air pipe 92, and the linear drive mechanism 9 is reset. The principle of controlling the cylinder action is existing technology and will not be elaborated here.

[0081] The linear drive mechanism 9 is controlled by a pneumatic foot switch 1, which makes it easy for operators to operate.

[0082] In another exemplary embodiment, such as Figure 3 , Figures 7-9 As shown, it also includes a fixing seat 7 fixedly connected to the fixing part 3, and the fixing seat 7 is provided with a first slide rail 71 and a second slide rail 72 that are parallel to each other;

[0083] The thrust section 5 is fixedly provided with a first sliding section 52 that is slidably connected to the first slide rail 71, the fixed seat 7 is fixedly connected to the blocking structure 30, and the shearing section 6 is fixedly provided with a second sliding section 61 that is slidably connected to the second slide rail 72.

[0084] Specifically, the device also includes a base 301 located at the bottom of the fixed seat 7. One side of the base 301 is a blocking structure 30, and the other side of the base 301 is a side stop structure 302. The blocking structure 30 and the side stop structure 302 are located at both ends of the length direction of the first slide rail 71, respectively.

[0085] In another exemplary embodiment, such as Figure 1 As shown, it also includes a housing 2, a fixing part 3, a thrust part 5, a shearing part 6 and a linear drive mechanism 9, all located inside the housing 2. The housing 2 is provided with a first clearance opening 21 and a second clearance opening 22, which are connected for taking out and releasing the light device 4.

[0086] A recycling box 23 can also be detachably installed on the housing 2. The recycling box 23 is used to hold the leftover material of the cut-off pins 41.

[0087] The above description is an explanation of the present utility model and not a limitation thereof. The scope of the present utility model is defined by the claims. Within the protection scope of the present utility model, any form of modification may be made.

Claims

1. A device for bending and shearing optical device leads, characterized in that: include: The fixing part (3) is provided with a first socket (31) corresponding to the pin (41), the side wall of the first socket (31) is provided with a first opening, and a blocking structure (30) is fixed on one side of the fixing part (3); The thrust part (5) is slidably connected to the fixing part (3), and the sliding direction is perpendicular to the length direction of the pin (41). There is a gap between the thrust part (5) and the fixing part (3). The thrust part (5) is provided with a second socket (51) corresponding to the first socket (31). The side wall of the second socket (51) is provided with a second opening in the same direction as the first opening. The first opening and the second opening are used to remove the bent pin (41). The shearing part (6) is slidably connected to the fixing part (3) and is in contact with the thrust part (5) with the same sliding direction. The thrust part (5) is located between the shearing part (6) and the fixing part (3). A linear drive mechanism (9) and a converter (83) fixedly connected to the drive end of the linear drive mechanism (9), wherein the thrust part (5) is elastically connected to the converter (83) and the shearing part (6) is fixedly connected to the converter (83); Before the linear drive mechanism (9) is started, the first socket (31) and the second socket (51) are facing each other to insert the pin (41) and support the optical device (4) on the fixed part (3); The linear drive mechanism (9) is started, driving the thrust part (5) and the shearing part (6) to slide. The thrust part (5) bends the pin (41) and is blocked by the blocking structure (30) to stop sliding. The sliding distance is the bending stroke, and the bending stroke is L. When the shearing part (6) slides the shearing stroke, it shears the pin (41), and the shearing stroke is M, and L < M.

2. The integrated device for bending and shearing optical device leads as described in claim 1, characterized in that: It also includes a first connector (81) fixedly connected to the thrust part (5), and a second connector (82) fixedly connected to the shear part (6) and the adapter (83). The end of the first connector (81) is provided with a guide shaft (811), and a boss structure (812) is formed at the connection between the guide shaft (811) and the first connector (81). The adapter (83) is provided with a limiting countersunk hole (831), the boss structure (812) is located in the limiting countersunk hole (831), and a limiting cavity is formed between the boss structure (812) and the bottom of the limiting countersunk hole (831). An elastic element (832) is installed in the limiting cavity. A through hole is provided at the bottom of the limiting countersunk hole (831). The guide shaft (811) is slidably engaged with the through hole. The sliding direction of the guide shaft (811) is the same as the sliding direction of the thrust part (5). The limiting element (813) is fixedly installed at the end of the guide shaft (811) located outside the adapter (83), so that the elastic element (832) is in a compressed state. After the thrust part (5) is blocked and stopped by the blocking structure (30), the adapter (83) continues to move under the drive of the linear drive mechanism (9), causing the guide shaft (811) to slide relative to the through hole, and the elastic element (832) to continue to be compressed. After the linear drive mechanism (9) is reset, the guide shaft (811) is reset under the elastic force of the elastic element (832).

3. The integrated device for bending and shearing optical device leads as described in claim 2, characterized in that: The elastic element (832) is a spring, which is sleeved on the guide shaft (811).

4. The integrated device for bending and shearing optical device leads as described in claim 2, characterized in that: It also includes a side stop structure (302) fixedly connected to the fixed part (3). The side stop structure (302) is located at the other end of the sliding direction of the thrust part (5) opposite to that of the blocking structure (30). After the linear drive mechanism (9) is reset, the thrust part (5) and the shearing part (6) simultaneously contact the blocking structure (30). The side stop structure (302) is provided with a notch for avoiding the first connector (81) and the second connector (82).

5. The integrated device for bending and shearing optical device pins as described in any one of claims 1-4, characterized in that: The linear drive mechanism (9) is a cylinder, and the piston rod end of the cylinder is fixedly connected to the adapter (83).

6. The integrated device for bending and shearing optical device leads as described in claim 5, characterized in that: It also includes a pneumatic foot switch (1) and a first air pipe (91) and a second air pipe (92) connected to the pneumatic foot switch (1). The cylinder is a double-acting cylinder. The end of the first air pipe (91) is connected to the first air port of the cylinder, and the end of the second air pipe (92) is connected to the second air port of the cylinder. The pneumatic foot switch (1) is connected to the air source through a third air pipe (93).

7. The integrated device for bending and shearing optical device leads as described in claim 1, characterized in that: It also includes a fixing seat (7) fixedly connected to the fixing part (3), and the fixing seat (7) is provided with a first slide rail (71) and a second slide rail (72) that are parallel to each other; The thrust part (5) is fixedly provided with a first sliding part (52) that is slidably connected to the first slide rail (71), the fixed seat (7) is fixedly connected to the blocking structure (30), and the shearing part (6) is fixedly provided with a second sliding part (61) that is slidably connected to the second slide rail (72).

8. The integrated device for bending and shearing optical device leads as described in claim 1, characterized in that: The first socket (31) has a first arc-shaped chamfer (311) at its end, and the second socket (51) has a second arc-shaped chamfer (511) at its end. The first arc-shaped chamfer (311) and the second arc-shaped chamfer (511) are located on both sides of the width direction of the gap, respectively.

9. The integrated device for bending and shearing optical device leads as described in claim 1, characterized in that: It also includes a housing (2), the fixing part (3), the thrust part (5), the shearing part (6) and the linear drive mechanism (9) are all located inside the housing (2), the housing (2) is provided with a first clearance opening (21) and a second clearance opening (22), the first clearance opening (21) and the second clearance opening (22) are connected for taking and placing the optical device (4).

10. The integrated device for bending and shearing optical device leads as described in claim 9, characterized in that: A recycling box (23) can also be detachably installed on the housing (2), the recycling box (23) being used to hold the scrap material of the cut-off pins (41).

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