Punching die tool suitable for buckle support
By designing a punching die fixture suitable for snap-fit brackets, continuous punching processing of snap-fit brackets was realized, solving the problems of die redundancy and low efficiency in traditional technology, and improving production efficiency and product quality.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- SHANGHAI GANGWANG IND
- Filing Date
- 2025-04-27
- Publication Date
- 2026-05-22
AI Technical Summary
Traditional buckle bracket processing requires multiple tooling molds, resulting in fragmented processes, redundant molds, low efficiency, reduced precision, and impact on product quality and cost.
A punching fixture suitable for snap-fit brackets was designed, comprising an upper die base, an upper die fixing plate, a punch, a die, and a motion conversion mechanism, to realize continuous punching and complete the processing of snap-fit brackets through the collaborative work of multiple stations.
It improved production efficiency, reduced the frequency of mold changes, enhanced product quality stability and production efficiency, and reduced costs.
Smart Images

Figure CN224265916U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of tooling equipment technology, specifically to a punching die tooling suitable for buckle brackets. Background Technology
[0002] Clip-on brackets are products that require drilling and multiple folding operations. Traditional manufacturing processes necessitate the replacement of multiple tooling molds, leading to fragmented processes, redundant molds, and low efficiency. Frequent mold changes also reduce overall precision, resulting in inconsistent product quality. Finally, issues such as cost and subsequent maintenance negatively impact production efficiency and profitability.
[0003] To address the aforementioned issues, we have made a series of improvements. Utility Model Content
[0004] The purpose of this invention is to provide a punching die fixture suitable for snap-fit brackets, so as to overcome the above-mentioned shortcomings and deficiencies of the prior art.
[0005] A stamping die fixture suitable for snap-fit brackets includes: an upper die base, an upper die fixing plate, a backing plate, a punch, a guide sleeve, a rigid ejector, a positioning post, a connecting post, a lower die base, a lower die fixing plate, a guide post, a die cavity, a positioning groove, and a motion conversion mechanism. The upper die base is connected to a stamping device. The upper die base is connected to the upper die fixing plate, the guide sleeve, and the rigid ejector. The upper die fixing plate is connected to the backing plate via the connecting post. The upper die fixing plate is connected to the punch and the positioning post. The punch is connected to the backing plate. When in use, the punch is connected to the die cavity. When in use, the guide sleeve is connected to the guide post. When in use, the positioning post is connected to the positioning groove. When in use, the rigid ejector is connected to the motion conversion mechanism. The lower die fixing plate, the guide post, and the motion conversion mechanism are connected to the lower die base. The die cavity and the positioning groove are connected to the lower die fixing plate.
[0006] Furthermore, the punch includes: a first punch, a T-shaped punch, a second punch, a U-shaped punch, a cylindrical punch, a third punch, a fourth punch, a fifth punch, a sixth punch, and an S-shaped punch, which are sequentially disposed on the upper die fixing plate. The fourth punch has a rectangular hole with oblique angle symmetry and a circular hole with vertical symmetry. The sixth punch has a groove with left and right symmetry and a circular hole with vertical symmetry.
[0007] Furthermore, the die includes: a first die, a second die, a third die, a fourth die, a fifth die, a sixth die, a seventh die, an eighth die, and a ninth die. The first die has a T-shaped groove and a positioning hole, and a fixing block. The second die has a square hole. The third die has a groove, a positioning hole, and a U-shaped groove. The fourth die is diagonally symmetrical. The fifth die is symmetrically arranged left and right. The sixth die has a trapezoidal groove at its top. The seventh and eighth dies have symmetrical protrusions. The ninth die has a trapezoidal symmetrical cross-section.
[0008] Furthermore, the motion conversion mechanism includes: a conversion base, a slide groove, a conversion block, and rollers. The conversion base is fixedly connected to the lower mold base by bolts. The side of the conversion base is provided with a slide groove, which is connected to the rollers. The rollers are connected to the conversion block via shafts, and the conversion block is connected to the material.
[0009] The beneficial effects of this utility model are:
[0010] Compared with traditional technology, this invention enables continuous punching with a single tooling, significantly improving production efficiency. Attached image description:
[0011] Figure 1 This is a schematic diagram of the structure of this utility model.
[0012] Figure 2 This is a structural diagram of the upper mold fixing plate.
[0013] Figure 3 This is a schematic diagram of the punch structure.
[0014] Figure 4 This is a schematic diagram of the die cavity.
[0015] Figure label:
[0016] Upper mold base 100, upper mold fixing plate 200 and pad 300.
[0017] Punch 400, first punch 410, T-shaped punch 420, second punch 430, U-shaped punch 440, cylindrical punch 450, third punch 460, fourth punch 470, fifth punch 480, sixth punch 490 and S-shaped punch 4100.
[0018] Guide sleeve 500, rigid pusher 600, positioning post 700, connecting post 800, lower mold base 900, lower mold fixing plate 1000 and guide post 1100.
[0019] Die 1200, first die 1210, fixing block 1211, second die 1220, third die 1230, fourth die 1240, fifth die 1250, sixth die 1260, seventh die 1270, eighth die 1280 and ninth die 1290.
[0020] Positioning groove 1300, motion conversion mechanism 1400, conversion base 1410, slide 1420, conversion block 1430 and roller 1440. Detailed Implementation
[0021] The present invention will be further described below with reference to specific embodiments. It should be understood that the following embodiments are for illustrative purposes only and are not intended to limit the scope of the present invention.
[0022] Example 1
[0023] Figure 1 This is a schematic diagram of the structure of this utility model. Figure 2 This is a structural diagram of the upper mold fixing plate. Figure 3 This is a schematic diagram of the punch structure. Figure 4 This is a schematic diagram of the die cavity.
[0024] like Figure 1-4 As shown, a stamping die fixture suitable for a snap-fit bracket includes: an upper die base 100, an upper die fixing plate 200, a pad 300, a punch 400, a guide sleeve 500, a rigid pusher 600, a positioning post 700, a connecting post 800, a lower die base 900, a lower die fixing plate 1000, a guide post 1100, a die 1200, a positioning groove 1300, and a motion conversion mechanism 1400. The upper die base 100 is connected to a stamping device, and the upper die base 100 is connected to the upper die fixing plate 200, the guide sleeve 500, and the rigid pusher 600. The upper die fixing plate 200 is connected to the upper die fixing plate 200, the guide sleeve 500, and the rigid pusher 600 via the connecting post 800. The backing plate 300 is connected, the upper mold fixing plate 200 is connected to the punch 400 and the positioning pin 700, the punch 400 is connected to the backing plate 300, the punch 400 is connected to the die 1200 when in use, the guide sleeve 500 is connected to the guide pin 1100 when in use, the positioning pin 700 is connected to the positioning groove 1300 when in use, the rigid pusher 600 is connected to the motion conversion mechanism 1400 when in use, the lower mold fixing plate 1000, the guide pin 1100 and the motion conversion mechanism 1400 are connected to the lower mold base 900, and the die 1200 and the positioning groove 1300 are connected to the lower mold fixing plate 1000.
[0025] The punch 400 includes: a first punch 410, a T-shaped punch 420, a second punch 430, a U-shaped punch 440, a cylindrical punch 450, a third punch 460, a fourth punch 470, a fifth punch 480, a sixth punch 490, and an S-shaped punch 4100, which are sequentially disposed on the upper die fixing plate 200. The fourth punch 470 is provided with a rectangular hole with oblique angle symmetry and a circular hole with vertical symmetry. The sixth punch 490 is provided with a groove with left and right symmetry and a circular hole with vertical symmetry.
[0026] The die 1200 includes: a first die 1210, a second die 1220, a third die 1230, a fourth die 1240, a fifth die 1250, a sixth die 1260, a seventh die 1270, an eighth die 1280, and a ninth die 1290. The first die 1210 is provided with a T-shaped groove and a positioning hole, and a fixing block 1211 is provided on the first die 1210. The second die 1220 is provided with a square hole. The third die 1230 is provided with a groove, a positioning hole, and a U-shaped groove. The fourth die 1240 is arranged diagonally symmetrically. The fifth die 1250 is arranged symmetrically from left to right. The sixth die 1260 is provided with a trapezoidal groove at the top. The seventh die 1270 and the eighth die 1280 are provided with symmetrical protrusions from left to right. The cross-section of the ninth die 1290 is symmetrically trapezoidal from left to right.
[0027] The motion conversion mechanism 1400 includes: a conversion base 1410, a slide 1420, a conversion block 1430, and a roller 1440. The conversion base 1410 is fixedly connected to the lower mold base 900 by bolts. The slide 1420 is provided on the side of the conversion base 1410. The slide 1420 is connected to the roller 1440. The roller 1440 is connected to the conversion block 1430 through a shaft. The conversion block 1430 is connected to the material.
[0028] The working principle of this utility model is as follows: The upper die holder 100 is connected to the stamping equipment. The upper die holder 100 drives the fixed structure on it to stamp the material from top to bottom. The material is mounted on the lower die fixing plate 1000 from one side, awaiting processing. The upper die holder 100 moves along the guide post 1100 via the guide sleeve 500. During this process, the positioning post 700, in conjunction with the positioning groove 1300, plays a positioning role. The rigid pusher 600 drives the motion conversion mechanism 1400, allowing the material to enter the next station for continuous stamping and production.
[0029] In the above process, the punch 400 and die 1200 change the shape of the material during extrusion according to their respective shapes, thereby completing the manufacturing of the snap-on bracket product. First, the complete material enters the first station, where the first punch 410 and T-shaped punch 420 work: the first punch 410 cuts off the upper end of the material, controlling its height, and simultaneously acts as a baffle; the T-shaped punch 420 cuts off the lower end of the material, controlling its height and controlling the lateral width, and cutting out sufficient space to clearly distinguish the first and second sets of products. Simultaneously, the first die 1210 also cooperates in stamping and cutting. The fixing block 1211 on the first die 1210 acts as a baffle to fix the material, and the small hole on the first die 1210, in conjunction with the positioning pin 700, drills positioning holes on the first set of products, thus cooperating with the subsequent positioning pin 700. In the second station, the square holes of the second punch 430 and the second die 1220 work together to drill fixing holes on the products. In the third station, the third punch 460, in conjunction with the groove of the third die 1230, stamps two sets of products. Through simultaneous work in the subsequent fourth station, the top of the product is punched into a suitable shape. The U-shaped punch 440 and the cylindrical punch 450, in conjunction with the positioning hole and U-shaped groove on the third die 1230, begin punching the internal structure on the product, specifically punching a hole and a U-shaped groove with symmetrical angles. The fourth station essentially completes the processing of the entire top part of the product by the third punch 460 and the third die 1230 in the previous station. In the fifth station, the fourth punch 470, in conjunction with the fourth die 1240 and the fifth die 1250, punches and folds the left and right ends of the product upwards, while simultaneously using the U-shaped groove to fold the middle of the product upwards. In the sixth station, the upper die fixing plate 200, with its hollow structure, works with the sixth die 1260 to support the bottom of the product, achieving a slight upward folding of the left and right sides of the product during the stamping process. At the seventh station, the fifth punch 480, in conjunction with the seventh die 1270, holds the bottom of the product against the wall. Similar to the previous stations, it further stamps the product, causing the slightly folded edges on both sides to fold upwards. At the eighth station, the sixth punch 490, in conjunction with the eighth die 1280, holds the bottom of the product against the wall, repeating the operation similar to the previous two stations, causing both sides of the product to fold completely, with the folded edges perpendicular to the bottom. At the ninth station, the S-shaped punch 4100, in conjunction with the ninth die 1290, avoids the folded edges on the U-shaped groove, and then punches and breaks off the connecting edge at the top of the product, completing the product output. The remaining scrap material is then passed downwards, and the fixing holes on the material are then fixed to the buckles on the conversion block 1430.
[0030] Finally, the entire material can move sequentially across the workstations via the rigid pusher 600 and the motion conversion mechanism 1400. The principle is as follows: during each downward press, the rigid pusher 600 contacts the roller 1440. After pressing, it depresses the roller 1440, causing it to rotate. The roller 1440, via its shaft, drives the conversion block 1430 to move within the slide groove 1420. The conversion block 1430 is connected to the material via a fastener, thus moving the material to the next workstation. Therefore, the first round of punching must be completed manually. After the first round, the fixing hole and fastener are secured, allowing for continuous punching until the entire material is used.
[0031] Compared with traditional technology, this invention enables continuous punching with a single tooling, significantly improving production efficiency.
[0032] The specific embodiments of this utility model have been described above, but this utility model is not limited thereto. Various changes can be made to this utility model as long as they do not depart from its spirit.
Claims
1. A punching die fixture suitable for snap-fit brackets, characterized in that, include: The upper die base (100), upper die fixing plate (200), pad plate (300), punch (400), guide sleeve (500), rigid ejector (600), positioning post (700), connecting post (800), lower die base (900), lower die fixing plate (1000), guide post (1100), die cavity (1200), positioning groove (1300), and motion conversion mechanism (1400) are provided. The upper die base (100) is connected to the stamping equipment. The upper die base (100) is connected to the upper die fixing plate (200), guide sleeve (500), and rigid ejector (600). The upper die fixing plate (200) is connected to the pad plate (300) through the connecting post (800). The fixed plate (200) is connected to the punch (400) and the positioning post (700). The punch (400) is connected to the pad plate (300). When in use, the punch (400) is connected to the die (1200). When in use, the guide sleeve (500) is connected to the guide post (1100). When in use, the positioning post (700) is connected to the positioning groove (1300). When in use, the rigid pusher (600) is connected to the motion conversion mechanism (1400). The lower die fixing plate (1000), the guide post (1100), and the motion conversion mechanism (1400) are connected to the lower die base (900). The die (1200) and the positioning groove (1300) are connected to the lower die fixing plate (1000).
2. The punching tooling suitable for a snap-fit bracket according to claim 1, characterized in that, The punch (400) includes: a first punch (410), a T-shaped punch (420), a second punch (430), a U-shaped punch (440), a cylindrical punch (450), a third punch (460), a fourth punch (470), a fifth punch (480), a sixth punch (490), and an S-shaped punch (4100) sequentially disposed on the upper die fixing plate (200). The fourth punch (470) is provided with a rectangular hole with oblique angle symmetry and a circular hole with vertical symmetry. The sixth punch (490) is provided with a groove with left and right symmetry and a circular hole with vertical symmetry.
3. The punching tooling suitable for a snap-fit bracket according to claim 1, characterized in that, The die cavity (1200) includes: a first die cavity (1210), a second die cavity (1220), a third die cavity (1230), a fourth die cavity (1240), a fifth die cavity (1250), a sixth die cavity (1260), a seventh die cavity (1270), an eighth die cavity (1280), and a ninth die cavity (1290). The first die cavity (1210) is provided with a T-shaped groove and a positioning hole, and a fixing block (1211) is provided on the first die cavity (1210). The second die (1220) has a square hole, the third die (1230) has a groove, a positioning hole and a U-shaped groove, the fourth die (1240) is arranged diagonally symmetrically, the fifth die (1250) is arranged symmetrically left and right, the sixth die (1260) has a trapezoidal groove at the top, the seventh die (1270) and the eighth die (1280) have symmetrical protrusions, and the cross section of the ninth die (1290) is symmetrical trapezoidal.
4. A punching fixture suitable for a snap-fit bracket according to claim 1, characterized in that, The motion conversion mechanism (1400) includes: a conversion base (1410), a slide groove (1420), a conversion block (1430), and a roller (1440). The conversion base (1410) is fixedly connected to the lower mold base (900) by bolts. The side of the conversion base (1410) is provided with a slide groove (1420). The slide groove (1420) is connected to the roller (1440). The roller (1440) is connected to the conversion block (1430) by a shaft. The conversion block (1430) is connected to the material.