Double-gold wiring board welding tool

Abstract

The utility model relates to a double-gold wiring board welding tool. The technical problem to be solved by the utility model is to provide the double-gold wiring board welding tool. According to the technical scheme, the device comprises a main base, a wire clamping assembly and a bimetallic strip bearing base assembly, the bimetallic strip bearing base assembly comprises a main bearing block, a length adjusting assembly and a width adjusting assembly, and the length adjusting assembly comprises a length fine adjustment block and a length supporting spring. The width adjusting assembly comprises a width fine adjustment block and a width supporting spring, the length fine adjustment block comprises a length fine adjustment block locking part and a length fine adjustment block guiding protrusion, and a length fine adjustment limiting column is arranged at the side end of the length fine adjustment block locking part. The utility model has the advantages that the length fine-tuning block and the width fine-tuning block realize two-dimensional self-adaptive adjustment and are compatible with bimetallic plates with different sizes, so that the problem of clamping stagnation or swinging is solved; the length fine-adjustment limiting column controls the adjustment range, avoids excessive stretching and retracting, improves the action stability, and greatly improves the welding efficiency.

Description

Technical Field

[0001] This utility model relates to the field of circuit breaker welding technology, specifically to a welding fixture for a double-metal terminal block. Background Technology

[0002] like Figure 8 As shown, when welding the bimetallic terminal block of the circuit breaker, the bimetallic plate 60 needs to be welded to one end of the conductor 61, and the other end of the conductor 61 needs to be welded to the terminal block. The bimetallic plate 60 has a rectangular structure. In the actual mass welding process, there will be dimensional differences between the bimetallic plates 60 after processing. The bimetallic plates 60 are of different lengths and widths. This will cause the bimetallic plates 60 to be too tight, resulting in jamming, or too loose, resulting in swaying when placed in the bimetallic plate fixture. This will have an adverse effect on the accuracy and precision of welding and will greatly reduce the overall welding efficiency. Improvements and optimizations will be made to address this issue. Utility Model Content

[0003] To solve the above problems, the technical problem to be solved by this utility model is to provide a welding fixture for double metal connectors.

[0004] The technical solution adopted by the welding fixture for bimetallic connectors of this utility model is characterized by including a main seat, a wire clamping assembly disposed on the main seat for wire clamping and fixing, and a bimetallic strip receiving seat assembly for positioning during bimetallic strip welding. The bimetallic strip receiving seat assembly includes a main receiving block, a length adjustment assembly disposed within the main receiving block for adjusting the length of the bimetallic strip, and a width adjustment assembly for adjusting the width of the bimetallic strip. The length adjustment assembly includes a length fine-tuning block and a length support spring. The width adjustment assembly includes a width fine-tuning block and a width support spring. The length fine-tuning block includes a length fine-tuning block locking part for abutting the length end of the bimetallic strip and a length fine-tuning block guide protrusion disposed below the length fine-tuning block locking part. A length fine-tuning limit post is provided on the side end of the length fine-tuning block locking part. The width fine-tuning block has a width fine-tuning block front end face abutting the width end of the bimetallic strip. A length stroke groove is provided on the front end face of the width fine-tuning block that is opposite to the length fine-tuning limit post and is used for limiting the stroke of the length fine-tuning block.

[0005] The main receiving block has a welding port for welding the wire and the bimetallic strip. The main receiving block has length positioning grooves on the front and rear sides of the welding port for receiving the bimetallic strip and the locking part of the length fine-tuning block. The length positioning grooves of the main receiving block have a length guide groove communicating with the welding port and guiding the movement of the length fine-tuning block's guide protrusion. A length support spring is placed in the length guide groove, with one end abutting against the length fine-tuning block and the other end abutting against the end of the length guide groove. The main receiving block has a width guide groove communicating with the length positioning groove and limiting the movement of the width fine-tuning block. A width support spring is placed in the width guide groove, with one end abutting against the back of the width fine-tuning block and the other end abutting against the end of the width guide groove. The length support spring and the width support spring are vertically arranged.

[0006] The length positioning groove is higher than the width guide groove, and the bottom of the front end face of the width adjustment block is provided with a width adjustment block anti-squeezing groove.

[0007] The length adjustment assembly further includes a length spring adjustment block and an adjustment screw. The length spring adjustment block includes a spring adjustment block receiving part placed on the length positioning groove of the main receiving block and a spring adjustment block limiting part placed in the length guide groove. One end of the length support spring abuts against the back of the length fine-tuning block and the other end abuts against the length spring adjustment block. The back of the length spring adjustment block is provided with an adjustment block threaded hole. The main receiving block is provided with a main receiving block threaded hole at the length positioning groove of the main receiving block. The adjustment screw is sequentially threadedly connected to the main receiving block threaded hole and the adjustment block threaded hole.

[0008] The bimetallic strip receiving assembly also includes a pressure plate for preventing the bimetallic strip from moving upward during welding. The main receiving block is provided with a pressure plate limiting port that communicates with the welding port of the main receiving block and is used to limit the movement of the pressure plate. The side wall of the welding port of the main receiving block is provided with a pressure plate end receiving groove for receiving the end of the pressure plate.

[0009] Both the length adjustment block and the width adjustment block are made of rubber.

[0010] The number of width-supporting springs is 2.

[0011] The advantages of this utility model of bimetallic connector welding fixture are: the length and width micro-adjustment blocks provide dual-dimensional adaptive adjustment, are compatible with bimetallic plates of different sizes, and eliminate jamming or swaying problems; the length micro-adjustment limit post controls the adjustment range, avoids excessive extension and retraction, improves the stability and reliability of the action, and greatly improves the welding efficiency. Attached Figure Description

[0012] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0013] Figure 1 This is a schematic diagram of the structure of the welding fixture for the double-metal connector of this utility model;

[0014] Figure 2 This is a structural schematic diagram of the bimetallic strip support assembly of this utility model;

[0015] Figure 3 This is an exploded view of the length adjustment component of this utility model;

[0016] Figure 4 This is a schematic diagram of the length fine-tuning block of this utility model;

[0017] Figure 5 This is a schematic diagram of the width adjustment block of this utility model;

[0018] Figure 6 This is a structural schematic diagram of the main support block of this utility model;

[0019] Figure 7 This is a schematic diagram of the structure of the length spring adjusting block of this utility model;

[0020] Figure 8 This is a schematic diagram of the welding of the double-metal connector of this utility model. Detailed Implementation

[0021] like Figure 1-8As shown, the bimetallic strip welding fixture of this utility model includes a main base 1, a wire clamping assembly 2 disposed on the main base 1 for clamping and fixing the wire 61, and a bimetallic strip receiving assembly 3 for positioning the bimetallic strip 60 during welding. The bimetallic strip receiving assembly 3 includes a main receiving block 5, a length adjusting assembly 6 disposed within the main receiving block 5 for adjusting the length of the bimetallic strip 60, and a width adjusting assembly 7 for adjusting the width of the bimetallic strip 60. The length adjusting assembly 6 includes a length fine-tuning block 10 and a length support spring 11. The width adjusting assembly 7 includes a width fine-tuning block 14 and a width support spring 15. The length fine-tuning block 10 includes a support spring 15 for... The length fine-tuning block locking part 16 at the length end of the bimetallic strip 60 and the length fine-tuning block guide protrusion 17 located below the length fine-tuning block locking part 16 are provided. The length fine-tuning block locking part 16 is provided with a length fine-tuning limiting post 18 on its side end. The width fine-tuning block 14 is provided with a width fine-tuning block front end face 19 abutting against the width end of the bimetallic strip 60. The width fine-tuning block front end face 19 is provided with a length travel groove 20 that is opposite to the length fine-tuning limiting post 18 and is used for limiting the travel of the length fine-tuning block 10. The main receiving block 5 is provided with a main receiving block welding port 21 for welding the wire 61 and the bimetallic strip 60. The main receiving block 5 is welded in the main receiving block. The main receiving block 21 has a length positioning groove 22 on its front and rear sides for receiving the bimetallic strip 60 and the length fine-tuning block locking part 16. The main receiving block length positioning groove 22 has a length guide groove 23 that communicates with the welding port 21 of the main receiving block and guides the movement of the length fine-tuning block guide protrusion 17. The length support spring 11 is placed in the length guide groove 23, with one end abutting against the length fine-tuning block 10 and the other end abutting against the end of the length guide groove 23. The main receiving block 5 has a width guide groove 24 that communicates with the length positioning groove 22 and limits the movement of the width fine-tuning block 14. The width support spring 15 is placed in the width guide groove 24. Inside, one end of the length adjustment block 10 abuts against the back of the width adjustment block 14 and the other end abuts against the end of the width guide groove 24. The length support spring 11 and the width support spring 15 are vertically arranged. When the bimetallic strip 60 is placed, the length adjustment block 10 can be flexibly adapted to the different lengths and widths of the bimetallic strip 60 under the action of the length support spring 11 and the width adjustment block 14 under the action of the width support spring 15. This effectively avoids the bimetallic strip 60 from getting stuck or swinging too loosely when placed. The length adjustment block 10 and the width adjustment block 14 are interlocked by the length adjustment limit post 18, which can control the maximum and minimum range of the length adjustment of the bimetallic strip 60 and ensure the stability and reliability of the adjustment action.

[0022] The length positioning groove 22 is higher than the width guide groove 24, and the bottom of the front end face 19 of the width adjustment block is provided with a width adjustment block anti-squeezing groove 25, which ensures that the front end face 19 of the width adjustment block can directly contact the width end of the bimetallic strip 60 and makes the operation of the width adjustment block 14 more reliable.

[0023] The length adjustment assembly 6 further includes a length spring adjustment block 12 and an adjustment screw 13. The length spring adjustment block 12 includes a spring adjustment block receiving part 27 placed on the length positioning groove 22 of the main receiving block and a spring adjustment block limiting part 28 placed in the length guide groove 23. One end of the length support spring 11 abuts against the back of the length fine-tuning block 10 and the other end abuts against the length spring adjustment block 12. The back of the length spring adjustment block 12 is provided with an adjustment block threaded hole 29. The main receiving block 5 is provided with a main receiving block threaded hole 30 at the length positioning groove 22 of the main receiving block. The adjustment screw 13 is threadedly connected to the main receiving block threaded hole 30 and the adjustment block threaded hole 29 in sequence. When the stability of the length support spring 11 decreases due to frequent extension and contraction, the restoring force of the length support spring 11 can be flexibly adjusted by tightening or loosening the adjustment screw 13, making adjustment more convenient and effectively improving welding efficiency and service life.

[0024] The bimetallic strip receiving assembly 3 also includes a pressure plate 8 for preventing the bimetallic strip 60 from moving upward during welding. The main receiving block 5 is provided with a pressure plate limiting port 32 that communicates with the welding port 21 of the main receiving block and is used to limit the movement of the pressure plate 8. The side wall of the welding port 21 of the main receiving block is provided with a pressure plate end receiving groove 33 for receiving the end of the pressure plate 8, which further improves the stability and reliability of welding.

[0025] Both the length adjustment block 10 and the width adjustment block 14 are made of rubber.

[0026] The width support spring 15 consists of two springs, ensuring smooth operation.

[0027] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present utility model are included within the protection scope of the present utility model.

Claims

1. A double gold bonding pad welding fixture, characterized by: The system includes a main base (1), a wire clamping assembly (2) mounted on the main base (1) for clamping and fixing the wire (61), and a bimetallic strip receiving assembly (3) for positioning the bimetallic strip (60) during welding. The bimetallic strip receiving assembly (3) includes a main receiving block (5), a length adjusting assembly (6) located within the main receiving block (5) for adjusting the length of the bimetallic strip (60), and a width adjusting assembly (7) for adjusting the width of the bimetallic strip (60). The length adjusting assembly (6) includes a length fine-tuning block (10) and a length support spring (11). The width adjusting assembly (7) includes a width fine-tuning block (14) and a width adjustment spring (15). The length adjustment block (10) includes a length adjustment block locking part (16) for abutting the length end of the bimetallic strip (60) and a length adjustment block guide protrusion (17) provided below the length adjustment block locking part (16). The length adjustment block locking part (16) is provided with a length adjustment limiting post (18) at its side end. The width adjustment block (14) is provided with a width adjustment block front end face (19) abutting the width end of the bimetallic strip (60). The width adjustment block front end face (19) is provided with a length stroke groove (20) that is opposite to the length adjustment limiting post (18) and is used for limiting the stroke of the length adjustment block (10). The main receiving block (5) is provided with a main receiving block welding port (21) for welding the wire (61) and the bimetallic strip (60). The main receiving block (5) is provided with a length positioning groove (22) on the front and rear sides of the main receiving block welding port (21) for receiving the bimetallic strip (60) and the length fine-tuning block locking part (16). The length positioning groove (22) of the main receiving block is provided with a length guide groove (23) that communicates with the main receiving block welding port (21) and is used to guide the movement of the length fine-tuning block guide protrusion (17). The length support spring (11) is placed in the... The length guide groove (23) is located inside the length fine-tuning block (10) with one end abutting against the length fine-tuning block (10) and the other end abutting against the end of the length guide groove (23). The main receiving block (5) is provided with a width guide groove (24) that communicates with the length positioning groove (22) and is used to limit the movement of the width fine-tuning block (14). The width support spring (15) is placed inside the width guide groove (24), with one end abutting against the back of the width fine-tuning block (14) and the other end abutting against the end of the width guide groove (24). The length support spring (11) and the width support spring (15) are arranged vertically.

2. The dual gold bonding pad welding fixture of claim 1, wherein: The length positioning groove (22) is higher than the width guide groove (24), and the bottom of the front end face (19) of the width adjustment block is provided with a width adjustment block anti-squeezing groove (25).

3. The dual gold bonding pad welding fixture of claim 1, wherein: The length adjustment assembly (6) further includes a length spring adjustment block (12) and an adjustment screw (13). The length spring adjustment block (12) includes a spring adjustment block receiving part (27) placed on the length positioning groove (22) of the main receiving block and a spring adjustment block limiting part (28) placed in the length guide groove (23). One end of the length support spring (11) abuts against the back of the length fine adjustment block (10) and the other end abuts against the length spring adjustment block (12). The back of the length spring adjustment block (12) is provided with an adjustment block threaded hole (29). The main receiving block (5) is provided with a main receiving block threaded hole (30) at the length positioning groove (22) of the main receiving block. The adjustment screw (13) is sequentially threaded to the main receiving block threaded hole (30) and the adjustment block threaded hole (29).

4. The dual gold bonding pad welding fixture of claim 1, wherein: The bimetallic strip receiving assembly (3) further includes a pressure plate (8) for preventing the bimetallic strip (60) from moving upward during welding. The main receiving block (5) is provided with a pressure plate limiting port (32) that communicates with the welding port (21) of the main receiving block and is used to limit the movement of the pressure plate (8). The side wall of the welding port (21) of the main receiving block is provided with a pressure plate end receiving groove (33) for receiving the end of the pressure plate (8).

5. The welding fixture for the bimetallic connector according to claim 1, characterized in that: Both the length adjustment block (10) and the width adjustment block (14) are made of rubber.

6. The dual gold bonding pad welding fixture of claim 1, wherein: The number of the width support springs (15) is 2.

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