Welding equipment for photoelectric product production

Abstract

The invention relates to the technical field of photoelectric product manufacturing, in particular to welding equipment for photoelectric product production, which comprises a worktable, an electric push rod is fixedly connected to the upper surface of the worktable, a welding head is fixedly connected to an output shaft of the electric push rod, and an electric sliding rail is fixedly connected to the upper surface of one side of the worktable in a linear manner. A sliding rod is slidably connected between the upper surfaces of the electric sliding rails, one end of the sliding rod is fixedly connected with a plurality of fixing blocks, extrusion blocks slidably penetrate through the lower surfaces of the fixing blocks, the lower surfaces of the extrusion blocks are protrusions, and the protrusions are soft; the protrusions at the bottom of the extrusion block can comb the optical fibers, so that the optical fibers are in correct arrangement positions before being welded, loss of optical signals when the optical signals pass through connection points can be reduced to the maximum extent through accurate alignment, and meanwhile, due to the fact that the protrusions at the bottom of the extrusion block are soft, the optical fibers are not damaged. In the carding process, the optical fibers can be effectively prevented from being damaged due to excessive bending or other forms of physical damage.

Description

Technical Field

[0001] The present invention relates to the technical field of optoelectronic product manufacturing, in particular to welding equipment for producing optoelectronic products. Background Art

[0002] In the production process of optoelectronic products, such as fiber-optic communication devices, optical sensors, laser modules, etc., precision welding is often required as a key means to achieve low-loss, high-strength connections. Specialized welding equipment can accurately control the docking process of tiny optical components, minimize light transmission loss at the connection point, and can also handle connections between different types of materials, such as glass and metal, ceramics and polymers, etc., to meet the diverse manufacturing needs of optoelectronic products.

[0003] When welding optical fibers, workers are required to manually adjust the position of the optical fibers. However, manual operation cannot achieve the same accuracy as mechanical positioning, which can easily lead to inaccurate fiber docking, thus affecting the final connection quality. In addition, multiple welding operations require additional time to ensure the correct arrangement and alignment of the optical fibers, which greatly reduces overall work efficiency.

[0004] Therefore, the present invention proposes a welding device for producing optoelectronic products to make up for and improve the shortcomings of the prior art. Summary of the Invention

[0005] In view of the defects of the prior art, the present invention provides a welding device for producing optoelectronic products, which can effectively solve the above technical problems.

[0006] The technical implementation scheme of the present invention is: a fusion splicing equipment for the production of optoelectronic products, including a workbench, the upper surface of the workbench is fixedly connected to an electric push rod, the output shaft of the electric push rod is fixedly connected to a fusion head, the upper surface of one side of the workbench is linearly fixedly connected to an electric slide rail, a sliding rod is slidably connected between the upper surfaces of the electric slide rails, one end of the sliding rod is fixedly connected to a plurality of fixed blocks, the lower surfaces of the fixed blocks are all slidably penetrated by extrusion blocks, the lower surfaces of the extrusion blocks are all convex, and the convexities are soft. When the optical fiber is squeezed by the lower surface of the extrusion block, the convexities at the bottom can comb the optical fiber so that the optical fiber is in the correct arrangement position before fusion splicing.

[0007] More preferably, the upper surface of the fixing block is provided with a square groove, and a limiting frame is slidably connected between the inner sides of the square groove on the upper surface of the fixing block, and two sides of the limiting frame are fixedly connected to a plurality of blocking blocks in a straight line, and one side of the blocking block is inclined, and the outer surfaces of the two sides of the top of the extrusion block are squeezed and matched with the upper surface of the blocking block, and the upper surface of the limiting frame is fixedly connected to the blocking block, and one side of the fusion joint is fixedly connected to the first extrusion rod, and the outer surface of one side of the first extrusion rod is squeezed and matched with the inclined surface of the first wedge block, and the upper surface of the limiting frame is fixedly connected to the second wedge block, and one side of the fusion joint is fixedly connected to the second extrusion rod, and the outer surface of one end of the second extrusion rod is squeezed and matched with the inclined surface of the second wedge block, and when the outer surface of the bottom of the first extrusion rod is squeezed against the inclination of the first wedge block, the bottom of the extrusion block can fix the outer surface of the optical fiber, so that the optical fiber remains fixed during the entire process before and after fusion.

[0008] More preferably, the outer surface of the top of the extrusion block is fixedly sleeved with a first spring, the bottom end of the first spring is fixedly connected to the upper surface of the fixed block, and the first spring is used to apply a downward extrusion force to the extrusion block.

[0009] More preferably, one end of the limiting frame is fixedly connected to the first fixing rod, the bottom of one end of the first fixing rod is fixedly connected to the first rack, one side of the upper surface of the workbench is rotatably connected to the first spur gear, the lower surface of the first rack is meshed with the outer surface of the first spur gear, one end of the first spur gear is fixedly connected to the bevel gear, one end of the bevel gear is fixedly connected to the first bidirectional screw rod, the first bidirectional screw rod is rotatably connected to the upper surface of the workbench, one side of the upper surface of the workbench is fixedly connected to the limiting frame, the outer surface of the first bidirectional screw rod is rotatably connected to the inner side of the limiting frame, the outer surfaces of both ends of the first bidirectional screw rod are threadedly connected to the second sliding member, and the outer surface of the second sliding member is linearly slidably connected to multiple limit members, and the limit members can apply pressure to the plate toward one end approaching each other, so that it is automatically pushed into the preset correct position.

[0010] More preferably, one end of the second sliding member is slidably connected to the inner side of the limiting frame, the outer surface of the bottom of the second sliding member is linearly slidably connected to multiple trigger members, the upper surfaces of the trigger members are rotatably connected to multiple connecting rods, and the ends of the connecting rods away from each other are rotatably connected to the upper surface of the limiting member. When the small plate is squeezed by the trigger member, each plate can be moved to the center position between the inner sides of the limiting member.

[0011] More preferably, a plurality of second springs are fixedly sleeved on the outer surface of the bottom of the second sliding member, one end of the second spring is fixedly connected to the inner side of the trigger member, and the second spring is used to drive the trigger member to reset.

[0012] More preferably, the other end of the sliding rod is fixedly connected to the second fixing rod, one end of the second fixing rod is fixedly connected to the second rack, the upper surface of the workbench is provided with a square groove, the inner side of the square groove of the workbench is rotatably connected to a second bidirectional screw rod, one end of the second bidirectional screw rod rotates and passes through one side of the upper surface of the workbench, the outer surface of the second bidirectional screw rod is threadedly connected to multiple groups of pushing blocks, the outer surfaces of the bottom of the pushing blocks are slidably connected in the sliding groove on the upper surface of the workbench, one end of the second bidirectional screw rod is fixedly connected to the second spur gear, the lower surface of the second rack is meshed with the outer surface of the second spur gear, and when each group of pushing blocks moves toward each other, the inner sides of the pushing blocks can make the optical fibers on each plate accurately gathered to the predetermined position.

[0013] More preferably, the inner sides of each group of the pushing blocks are soft, and the soft inner sides of the pushing blocks can avoid damage to the outer surface of the optical fiber.

[0014] Compared with the prior art, the present invention has the following advantages:

[0015] 1. In the present invention, when the extrusion block is driven to move to the left by the fixed block, the protrusion at the bottom of the extrusion block can comb the optical fiber, so that the optical fiber is in the correct arrangement position before welding. The precise alignment can minimize the loss of the optical signal when passing through the connection point. At the same time, since the protrusion at the bottom of the extrusion block is soft, the optical fiber can be effectively prevented from being damaged by excessive bending or other forms of physical damage during the combing process; when the blocking block moves backward, the bottom of the extrusion block is prompted to fix the outer surface of the optical fiber, so that the optical fiber remains fixed in the entire process before and after welding, thereby improving the accuracy of welding.

[0016] 2. When the present invention drives the limiting member to move toward the side close to each other through the second sliding member, the limiting member can apply pressure to the plate toward the end close to each other, so that it is automatically pushed into the preset correct position, realizing automatic calibration, avoiding the position deviation problem caused by inconsistent operation during manual placement, and ensuring that the photoelectric panel is in the same and accurate starting position before each welding; when multiple plates need to be welded, the trigger member can squeeze the plate toward the end close to each other, so that each plate can be moved to the center position between the sides of the limiting member close to each other, so that each plate is automatically adjusted to the central symmetrical position, ensuring that each plate is in the preset ideal welding position.

[0017] 3. The present invention drives the pushing blocks to move toward each other through the rotation of the second bidirectional screw, so that the optical fibers on each plate are accurately gathered to a predetermined position. After the optical fibers are gathered, they can form more compact and regular connection points, significantly improving the quality of welding, thereby reducing the loss in the optical signal transmission process and enhancing the signal strength, achieving a high-quality welding effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0019] Figure 2 Schematic diagram of the structure of the combing component of the present invention.

[0020] Figure 3 This is an exploded view of the sliding cooperation between the electric slide rail and the sliding rod of the present invention.

[0021] Figure 4 It is a structural schematic diagram of the pressing component of the present invention.

[0022] Figure 5 It is a structural schematic diagram of the positioning component of the present invention.

[0023] Figure 6 It is a structural schematic diagram of the driving component of the present invention.

[0024] Figure 7 It is a structural schematic diagram of the center component of the present invention.

[0025] The markings of the components in the accompanying drawings are as follows: 1-workbench, 11-electric push rod, 12-fusion joint, 2-electric slide rail, 21-sliding rod, 22-fixed block, 23-extrusion block, 231-first spring, 24-limiting frame, 25-blocking block, 26-first wedge block, 27-first extrusion rod, 28-second wedge block, 29-second extrusion rod, 3-first fixed rod, 31-first rack, 32-first spur gear, 33-bevel gear, 34-first bidirectional screw rod, 341-limiting frame, 35-second sliding member, 36-limiting member, 37-connecting rod, 38-trigger member, 39-second spring, 4-second fixed rod, 41-second rack, 42-second spur gear, 43-second bidirectional screw rod, 44-pushing block. DETAILED DESCRIPTION

[0026] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0027] Next, combine the Figure 1-Figure 7 A specific embodiment of the present invention is described in detail.

[0028] Reference Attachment Figure 1 A welding device for producing optoelectronic products includes a workbench 1, which is used to hold plates. An electric push rod 11 is fixedly connected to the upper surface of the workbench 1, and a welding head 12 is fixedly connected to the output shaft of the electric push rod 11. The electric push rod 11 is used to drive the welding head 12 to move up and down, and the bottom of the welding head 12 is used to weld optical cables.

[0029] When the plates need to be welded, the plates are first placed on the upper surface of the workbench 1, and the optical fiber on the plate is aligned with another plate. Then, the electric push rod 11 is started, and the output shaft of the electric push rod 11 drives the welding head 12 to move downward, so that the bottom of the welding head 12 can weld the optical fiber and the plate.

[0030] As described in the background technology, when welding optical fibers, workers are required to manually adjust the position of the optical fibers. However, manual operation is difficult to achieve the accuracy of mechanical positioning, which can easily lead to inaccurate optical fiber docking, thereby affecting the final connection quality. In addition, when performing multiple welding operations, extra time is required to determine the correct arrangement and alignment of the optical fibers, which greatly reduces overall work efficiency.

[0031] Reference Attachment Figures 1-4 In order to solve the problem of needing to manually comb the optical fiber, this embodiment adopts the following technical solution: a plurality of electric slide rails 2 are fixedly connected to the upper surface of the bottom right side of the workbench 1, and a sliding rod 21 is slidably connected between the upper surfaces of the electric slide rails 2. The electric slide rail 2 is used to drive the sliding rod 21 to slide left and right, and a plurality of fixed blocks 22 are fixedly connected to the left end of the sliding rod 21. The sliding rod 21 is used to drive the fixed blocks 22 to slide synchronously. The lower surfaces of the fixed blocks 22 are all slidably connected with extrusion blocks 23. The bottoms of the extrusion blocks 23 are all convex, and the convexities are soft as a whole. The convexities at the bottom of the extrusion blocks 23 are used to comb the optical fiber.

[0032] Before placing the plate on the upper surface of the workbench 1 for welding operation, the staff can first start the electric slide rail 2 to slide the sliding rod 21 to the left. The sliding rod 21 moves to the left through the fixed block 22 to drive the extrusion block 23 to move at the same time. As the extrusion block 23 moves to the left, the protrusion at its bottom can comb the optical fiber so that the optical fiber is in the correct arrangement position before welding. Precise alignment can minimize the loss of optical signals when passing through the connection point. Since the protrusion at the bottom of the extrusion block 23 is soft, it can avoid damage to the optical fiber caused by excessive bending or external force during the combing process, so that the optical fiber is arranged neatly and accurately aligned.

[0033] The upper surface of the fixed block 22 is provided with a square groove, and a limiting frame 24 is slidably connected between the inner sides of the square groove on the upper surface of the fixed block 22. A plurality of blocking blocks 25 are fixedly connected on both sides of the limiting frame 24. The limiting frame 24 is used to drive the blocking block 25 to move. The front path of the blocking block 25 is inclined, and the upper surface of the blocking block 25 is squeezed and matched with the outer surface of the top of the extrusion block 23. The upper surface of the blocking block 25 is used to limit the extrusion block 23. The outer surface of the top of the extrusion block 23 is fixedly sleeved with a first spring 231. The bottom end of the first spring 231 is fixedly connected to the upper surface of the fixed block 22. The first spring 231 is used to drive the extrusion block 23 to slide downward. A first wedge block 26 is fixedly connected to the upper surface, and the first wedge block 26 is used to drive the limiting frame 24 to slide backward. A first extrusion rod 27 is fixedly connected to the right side of the welding head 12, and the welding head 12 is used to drive the first extrusion rod 27 to move up and down. The outer surface of the bottom of the first extrusion rod 27 is squeezed and matched with the upper surface of the first wedge block 26. The first extrusion rod 27 is used to cause the first wedge block 26 to slide backward. A second wedge block 28 is fixedly connected to the upper surface of the limiting frame 24, and a second extrusion rod 29 is fixedly connected to the right side of the welding head 12. The outer surface of the bottom of the second extrusion rod 29 is squeezed and matched with the inclined surface of the second wedge block 28. The second extrusion rod 29 is used to drive the second wedge block 28 to slide forward.

[0034] As the fixed block 22 moves to the left, the limiting frame 24 is driven to move at the same time. At this time, the output shaft of the electric push rod 11 can drive the welding head 12 to move downward. When the welding head 12 moves downward, the first extrusion rod 27 and the second extrusion rod 29 are driven to move simultaneously. When the first extrusion rod 27 moves downward, the outer surface of the bottom of the first extrusion rod 27 can contact the inclined surface of the first wedge block 26, and when the second extrusion rod 29 moves downward, the outer surface of the bottom of the second extrusion rod 29 will not contact the inclined surface of the second wedge block 28. As the outer surface of the bottom of the first extrusion rod 27 continues to move downward to squeeze the inclined surface of the first wedge block 26, the first wedge block 26 will drive the limiting The frame 24 slides backward, and when the limiting frame 24 slides backward in the square groove on the upper surface of the fixed block 22, it will drive the second wedge block 28 to move at the same time, so that the inclined surface of the second wedge block 28 can fit the outer surface of the bottom of the second extrusion rod 29, and when the limiting frame 24 slides backward, it will drive the blocking block 25 to move at the same time, and when the blocking block 25 slides backward, the outer surface of the top of the extrusion block 23 will be out of contact with the upper surface of the blocking block 25. At this time, the first spring 231 in the stretched state can drive the extrusion block 23 to move downward, so that the bottom of the extrusion block 23 can fix the outer surface of the optical fiber, so that the optical fiber remains fixed in the entire process before and after welding, thereby improving the accuracy of welding.

[0035] As the optical fiber is fused at the bottom of the fusion head 12, the output end of the electric push rod 11 will drive the fusion head 12 to move upward. During this process, the upward movement of the fusion head 12 will drive the first squeezing rod 27 and the second squeezing rod 29 to move simultaneously. When the first squeezing rod 27 moves upward, its outer surface will not contact the inclined surface of the first wedge block 26, and when the second squeezing rod 29 moves upward, its outer surface will contact and press the inclined surface of the second wedge block 28, prompting the second wedge block 28 to drive the limiting frame 24 to slide forward, thereby causing the blocking block 25 to move forward at the same time. When the blocking block 25 moves forward, its inclined surface contacts the top of the squeezing block 23 and exerts an upward force, forcing the squeezing block 23 to overcome the spring force and slide upward until the first spring 231 is in a compressed state, thereby completing the resetting of the squeezing block 23.

[0036] After the squeezing block 23 is reset, the electric slide rail 2 can drive the fixed block 22 to move to the right through the sliding rod 21. When the fixed block 22 moves to the right, it will drive the squeezing block 23 to move at the same time, thereby facilitating the squeezing block 23 to subsequently straighten the optical fiber.

[0037] When the staff places the plates on the upper surface of the workbench 1 for welding, they need to manually adjust the positions of the plates, which is not only time-consuming but also difficult to achieve high-precision alignment requirements.

[0038] Reference Attachment Figure 5-Figure 6 In order to solve the problem of needing to manually adjust the position of the plate, this embodiment adopts the following technical solution: the rear end of the sliding rod 21 is fixedly connected to the first fixed rod 3, and the bottom of the rear end of the first fixed rod 3 is fixedly connected to the first rack 31. The sliding rod 21 is used to drive the first rack 31 to move horizontally synchronously through the first fixed rod 3.

[0039] The right side of the upper surface of the workbench 1 is rotatably connected to the first spur gear 32, and the bottom of the first rack 31 meshes with the outer surface of the first spur gear 32 for driving the first spur gear 32 to rotate. The rear end of the first spur gear 32 is fixedly connected to the bevel gear 33, and the left end of the bevel gear 33 is fixedly connected to the first bidirectional screw rod 34, and the first spur gear 32 is used to drive the first bidirectional screw rod 34 to rotate through the bevel gear 33. The rear side of the upper surface of the workbench 1 is fixedly connected to the limit frame 341. The outer surfaces of both ends of the first bidirectional screw rod 34 are rotatably connected to the inner sides of both ends of the limit frame 341, and the outer surfaces of both ends of the limit frame 341 are threadedly connected to the second sliding member 35, and the outer surfaces of the rear end of the second sliding member 35 are slidably connected to the inner side of the limit frame 341. The first bidirectional screw rod 34 is used to drive the second sliding member 35 to slide left and right. The outer surface of the second sliding member 35 is linearly slidably connected to a plurality of limit members 36. The second sliding member 35 is used to drive the limit member 36 to move, and the limit member 36 is used to squeeze the plate.

[0040] When it is necessary to weld the optical fiber on the plate, first place the plate on the upper surface of the workbench 1, then start the electric slide 2 to move the sliding rod 21, thereby driving the first fixed rod 3 and the first rack 31 to move left synchronously. When the first rack 31 moves left, it will engage with the outer surface of the first spur gear 32, drive the first spur gear 32 to rotate, and drive the first bidirectional screw rod 34 to rotate through the bevel gear 33.

[0041] At this time, the first bidirectional screw rod 34 drives the second sliding member 35 to move in the direction of approaching each other. As the second sliding member 35 moves, it can drive the limit member 36 to move at the same time, so that the end of the limit member 36 approaching each other can exert pressure on the plate, so that it is automatically pushed into the preset correct position, realizing automatic calibration, avoiding the position deviation problem caused by inconsistent operation during manual placement, and ensuring that the photoelectric panel is in the same and accurate starting position before each welding.

[0042] The outer surface of the bottom of the second sliding member 35 is linearly slidably connected to multiple trigger members 38, and the outer surface of the bottom of the second sliding member 35 is linearly fixedly sleeved with multiple second springs 39. The second sliding member 35 is used to drive the trigger member 38 to move, and the ends of the second springs 39 that are away from each other are fixedly connected to the inner side of the trigger member 38. The second spring 39 is used to drive the trigger member 38 to reset and move. The upper surface of the side of the trigger member 38 that is away from each other is rotatably connected to multiple connecting rods 37. The ends of the connecting rods 37 that are away from the trigger member 38 are rotatably connected to the upper surface of the limit member 36. The trigger member 38 is used to drive the limit member 36 to move centrally through the connecting rod 37.

[0043] When multiple smaller plates need to be welded at the same time, the second sliding member 35 drives the limiting member 36 to move toward the side closer to each other. At this time, one end of the limiting member 36 will be inserted into the gap between the plates instead of directly squeezing the outer surface of the plates. At the same time, the second sliding member 35 will also drive the trigger member 38 to move together. The trigger member 38 will contact the plates and apply pressure during the movement.

[0044] As the second sliding member 35 drives the trigger member 38 to continue to move, the trigger member 38 is blocked by the plate and cannot move further. The second sliding member 35 will drive the limit member 36 to move as it continues to move, and move the second spring 39 to a stretched state. Since the trigger member 38 is connected to the limit member 36 through the connecting rod 37, when the limit member 36 continues to move under the drive of the second sliding member 35, the end of the connecting rod 37 away from the trigger member 38 will generate a pulling force on the limit member 36, prompting the limit member 36 to move toward the side close to each other, so that each plate can be moved to the center position between the inner sides of the limit member 36, so that each plate is automatically adjusted to a central symmetrical position, ensuring that each plate is in the preset ideal welding position.

[0045] When the optical fiber splicing on the plate is completed, the electric slide rail 2 will drive the sliding rod 21 to slide to the right. When the sliding rod 21 slides to the right, it will drive the first rack 31 to slide to the right synchronously through the first fixed rod 3. When the first rack 31 slides to the right, it can mesh with the outer surface of the first spur gear 32, causing the first spur gear 32 to drive the first bidirectional screw rod 34 to rotate in the opposite direction through the bevel gear 33. When the first bidirectional screw rod 34 reverses, it will cause the second sliding member 35 to move to the side away from each other. As the second sliding member 35 moves, it can drive the limit member 36 and the trigger member 38 to move synchronously. At this time, the end of the trigger member 38 that is close to each other will be out of contact with the outer surface of the plate, and the second spring 39 in the stretched state will drive the trigger member 38 to move to the side close to each other. During the movement of the trigger member 38, it will drive the connecting rod 37 to move synchronously, and the end of the connecting rod 37 away from the trigger member 38 will pull the limit member 36 during the movement, so that the limit member 36 returns to the expanded state.

[0046] When the fusion splice 12 is splicing the optical fibers on the plates, the optical fibers between the plates tend to be scattered together, making it difficult to ensure complete alignment during the splicing process, and easily causing eccentricity and misalignment.

[0047] Reference Attachment Figure 7 In order to solve the problem that the optical fibers between the plates are easily scattered together, this embodiment adopts the following technical solution: the front end of the sliding rod 21 is fixedly connected to the second fixing rod 4, the left end of the second fixing rod 4 is fixedly connected to the second rack 41, the sliding rod 21 is used to drive the second rack 41 to move through the second fixing rod 4, the upper surface of the workbench 1 is provided with a square groove, the inner side of the square groove of the workbench 1 is rotatably connected to the second bidirectional screw rod 43, the front end of the second bidirectional screw rod 43 rotates and passes through the front side of the workbench 1, and the front end of the second bidirectional screw rod 43 is fixedly connected The second spur gear 42 is used to drive the second bidirectional screw rod 43 to rotate. The lower surface of the second rack 41 is engaged with the outer surface of the second spur gear 42. The second rack 41 is used to drive the second spur gear 42 to rotate. The outer surface of the second bidirectional screw rod 43 is linearly threaded and connected to multiple groups of push blocks 44. The outer surfaces of the bottom of the push blocks 44 are slidably connected in the slide groove on the upper surface of the workbench 1. The second bidirectional screw rod 43 is used to cause the push blocks 44 to slide toward each other. The inner sides of the push blocks 44 are used to gather the optical fibers on the plate.

[0048] When it is necessary to weld the optical fiber, the sliding rod 21 can drive the second rack 41 to move to the left through the second fixed rod 4. When the second rack 41 moves to the left, the lower surface of the second rack 41 can engage with the outer surface of the second spur gear 42, prompting the second spur gear 42 to drive the second bidirectional screw rod 43 to rotate. When the second bidirectional screw rod 43 rotates, it can prompt each group of pushing blocks 44 to move toward each other, so that the inner sides of the pushing blocks 44 can gather the optical fibers to be welded, so that the optical fibers on each plate are accurately gathered to the predetermined position. After the optical fibers are gathered, they can form tighter and more regular connection points, significantly improving the welding quality, thereby reducing the loss during optical signal transmission and enhancing the signal strength, achieving high-quality welding effects. Since the inner sides of the pushing blocks 44 are soft, the pushing blocks 44 will not cause damage to the outer surface of the optical fibers when gathering the optical fibers.

[0049] As the optical fiber welding is completed, the sliding rod 21 can drive the second rack 41 to move to the right through the second fixed rod 4. When the second rack 41 moves to the right, it will prompt the second spur gear 42 to drive the second bidirectional screw rod 43 to rotate in the opposite direction. As the second bidirectional screw rod 43 rotates in the opposite direction, each group of push blocks 44 will move to the side away from each other, which not only makes it convenient for the staff to take out the welded plates, but also makes it convenient for the push blocks 44 to subsequently gather the optical fibers.

[0050] Although the present disclosure has been shown and described with reference to certain exemplary embodiments thereof, it will be understood by those skilled in the art that various changes in form and details may be made to the present disclosure without departing from the spirit and scope of the present disclosure as defined by the appended claims and their equivalents. Therefore, the scope of the present disclosure should not be limited to the above-described embodiments, but should be determined not only by the appended claims but also by the equivalents of the appended claims.

Claims

1. A welding device for producing optoelectronic products, comprising a workbench (1), an upper surface of the workbench (1) is fixedly connected to an electric push rod (11), an output shaft of the electric push rod (11) is fixedly connected to a welding head (12), characterized in that: The upper surface of one side of the workbench (1) is fixedly connected to an electric slide rail (2) in a straight line, a sliding rod (21) is slidably connected between the upper surfaces of the electric slide rail (2), one end of the sliding rod (21) is fixedly connected to a plurality of fixed blocks (22), the lower surfaces of the fixed blocks (22) are all slidably penetrated by extrusion blocks (23), and the lower surfaces of the extrusion blocks (23) are all convex, and the convexities are soft.

2. The fusion splicing equipment for producing optoelectronic products according to claim 1, characterized in that: The upper surface of the fixed block (22) is provided with a square groove, and a limiting frame (24) is slidably connected between the inner sides of the square groove on the upper surface of the fixed block (22), and a plurality of blocking blocks (25) are fixedly connected to the two sides of the limiting frame (24) in a straight line, and one side of the blocking blocks (25) is inclined. The outer surfaces of the two sides of the top of the extrusion block (23) are pressed and matched with the upper surface of the blocking blocks (25), and the upper surface of the limiting frame (24) is fixedly connected to the blocking blocks (25). One side of the welding head (12) is fixedly connected to a first extrusion rod (27), and the outer surface of one side of the first extrusion rod (27) is pressed and matched with the inclined surface of the first wedge block (26). The upper surface of the limiting frame (24) is fixedly connected to a second wedge block (28), and one side of the welding head (12) is fixedly connected to a second extrusion rod (29), and the outer surface of one end of the second extrusion rod (29) is pressed and matched with the inclined surface of the second wedge block (28).

3. The fusion splicing equipment for producing optoelectronic products according to claim 2, characterized in that: The outer surface of the top of the extrusion block (23) is fixedly sleeved with a first spring (231), and the bottom end of the first spring (231) is fixedly connected to the upper surface of the fixed block (22).

4. The welding equipment for producing optoelectronic products according to claim 1, characterized in that: One end of the limiting frame (24) is fixedly connected to a first fixed rod (3), and the bottom of one end of the first fixed rod (3) is fixedly connected to a first rack (31); one side of the upper surface of the workbench (1) is rotatably connected to a first spur gear (32); the lower surface of the first rack (31) is meshed with the outer surface of the first spur gear (32); one end of the first spur gear (32) is fixedly connected to a bevel gear (33); one end of the bevel gear (33) is fixedly connected to a first bidirectional screw rod (34); the first bidirectional screw rod (34) is rotatably connected to the upper surface of the workbench (1); one side of the upper surface of the workbench (1) is fixedly connected to a limiting frame (341); the outer surface of the first bidirectional screw rod (34) is rotatably connected to the inner side of the limiting frame (341); the outer surfaces of both ends of the first bidirectional screw rod (34) are threadedly connected to a second sliding member (35); the outer surface of the second sliding member (35) is linearly slidably connected to a plurality of limiting members (36).

5. The welding equipment for producing optoelectronic products according to claim 4, characterized in that: One end of the second sliding member (35) is slidably connected to the inner side of the limiting frame (341), and the outer surface of the bottom of the second sliding member (35) is linearly slidably connected to multiple trigger members (38), and the upper surfaces of the trigger members (38) are rotatably connected to multiple connecting rods (37), and the ends of the connecting rods (37) that are away from each other are rotatably connected to the upper surface of the limiting member (36).

6. The fusion splicing equipment for producing optoelectronic products according to claim 5, characterized in that: A plurality of second springs (39) are fixedly sleeved on the outer surface of the bottom of the second sliding member (35), and one end of the second spring (39) is fixedly connected to the inner side of the trigger member (38).

7. The fusion splicing equipment for producing optoelectronic products according to claim 1, characterized in that: The other end of the sliding rod (21) is fixedly connected to a second fixed rod (4), one end of the second fixed rod (4) is fixedly connected to a second rack (41), a square groove is provided on the upper surface of the workbench (1), and a second bidirectional screw rod (43) is rotatably connected to the inner side of the square groove of the workbench (1), one end of the second bidirectional screw rod (43) is rotated and passes through one side of the upper surface of the workbench (1), the outer surface of the second bidirectional screw rod (43) is threadedly connected to multiple groups of pushing blocks (44), the outer surfaces of the bottoms of the pushing blocks (44) are slidably connected to the sliding grooves on the upper surface of the workbench (1), one end of the second bidirectional screw rod (43) is fixedly connected to a second spur gear (42), and the lower surface of the second rack (41) is meshed with the outer surface of the second spur gear (42).

8. The welding equipment for producing optoelectronic products according to claim 7, characterized in that: The inner sides of each group of pushing blocks (44) are soft.

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