Automatic cutting process of chip tantalum capacitor strip
The automated lead cutting process solves the problem of low lead cutting efficiency in chip tantalum capacitors, achieving efficient and low-cost automated lead cutting and ensuring product quality and dimensional consistency.
Patent Information
- Application Number
- CN202410969634.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-19
- Publication Date
- 2025-11-04
- Estimated Expiration
- 2044-07-19
AI Technical Summary
In the existing technology, the cutting process of chip tantalum capacitors requires manual operation, which leads to low production efficiency, increased labor costs, and difficulty in guaranteeing product quality.
An automated rebar cutting process is adopted, through the coordinated operation of the feeding, conveying, cutting and collecting devices, to achieve automated rebar cutting of tantalum capacitor strips, ensuring consistency of rebar dimensions and improving efficiency.
It achieves highly efficient automatic cutting of tantalum chip capacitor strips, increasing efficiency by 800% compared to manual cutting and 300% compared to single-strip conveyor cutting, reducing production costs while ensuring product quality and appearance requirements.
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Figure CN118832032B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The application belongs to the technical field of cutting the ribs of a chip tantalum capacitor strip, and particularly relates to an automatic rib cutting process for a chip tantalum capacitor strip. BACKGROUND
[0002] With the continuous development of electronic information equipment, the demand for chip tantalum capacitors is increasing. Under the premise of ensuring quality, improving production capacity has become one of the most urgent things in the current electronic component industry. In addition to increasing production capacity by purchasing equipment, the number of products loaded on each lead frame can also be increased to improve production capacity.
[0003] However, once the product density of each lead frame is increased, the plastic overflow between products will be short and firm, making it difficult to clean the overflow during the sandblasting process. The residual overflow will affect the pin forming of the product in the subsequent process, so the lead frame needs to be cut before pin forming. The current market requires manual operation, which reduces production efficiency and increases labor costs, and needs to be further improved. SUMMARY
[0004] The purpose of the present application is to overcome the shortcomings of the prior art and provide an automatic rib cutting process for a chip tantalum capacitor strip.
[0005] The application adopts the following technical solutions:
[0006] An automatic rib cutting process for a chip tantalum capacitor strip, the specific operation is as follows: first, the chip tantalum capacitor strip is transported one by one to the feeding device by the feeding device, the feeding device receives the chip tantalum capacitor strip and drives it to move upwards, the traction device is connected with the chip tantalum capacitor strip and is brought into the rib cutting device for rib cutting treatment, when the traction device pulls the next chip tantalum capacitor strip into the rib cutting device, the chip tantalum capacitor strip that has completed the rib cutting treatment is pushed out to the receiving device by the traction device at the same time;
[0007] The chip tantalum capacitor strip comprises a frame, a plurality of tantalum capacitor units arranged at intervals on the frame, and a plurality of positioning holes arranged at intervals along the length direction of the frame.
[0008] The traction device comprises a traction plate that can move back and forth relative to the feeding device, a positioning block arranged at the front end of the traction plate, a positioning column arranged on the positioning block and capable of being inserted into the positioning hole, a pushing plate arranged on the traction plate behind the positioning block, and a traction mechanism connected and driving the traction plate to move back and forth. When the traction plate pulls the next chip tantalum capacitor strip into the rib cutting device, the pushing plate can push the chip tantalum capacitor strip that has completed the rib cutting treatment outwards to the receiving device.
[0009] Further, the cutting device comprises a cutting table, a cutting lower die movably arranged on the cutting table for placing the strip-shaped tantalum capacitor, a cutting mechanism movably arranged above the cutting lower die for cutting the strip-shaped tantalum capacitor, and a plurality of compression springs connected between the cutting lower die and the cutting table, when the cutting mechanism moves downward for cutting the strip-shaped tantalum capacitor, the strip-shaped tantalum capacitor will move downward with the cutting lower die to disengage the positioning hole from the positioning column under the action of the plurality of compression springs, at this time, the traction plate can move to the direction close to the feeding device under the action of the traction mechanism and be connected with the next strip-shaped tantalum capacitor.
[0010] Further, the pushing plate comprises a connecting portion connected with the traction plate and an inverted L-shaped pushing portion connected with the connecting portion, the cutting lower die comprises a placing groove for placing the strip-shaped tantalum capacitor and a moving groove arranged on one side of the placing groove for moving the pushing plate downward, and the positioning column is located in front of the pushing portion.
[0011] Further, the cutting mechanism comprises a cutting upper die arranged above the cutting lower die, a plurality of elastic positioning columns connected between the cutting upper die and the cutting table, a cutting knife assembly arranged on the cutting upper die opposite to the placing groove, and a cutting cylinder capable of pressing downward the cutting upper die.
[0012] Further, the cutting knife assembly comprises a mounting seat arranged on the cutting upper die and a plurality of cutting knives arranged in the mounting seat and opposite to the plurality of tantalum capacitor units, respectively, and the cutting cylinder is capable of pressing downward the mounting seat to move the plurality of cutting knives downward for cutting the strip-shaped tantalum capacitor in the placing groove.
[0013] Further, the feeding device comprises a feeding track movably arranged for receiving the strip-shaped tantalum capacitor, a lifting mechanism connected and driving the feeding track to move upward and downward, a pressing mechanism movably arranged above the feeding track for limiting the position of the strip-shaped tantalum capacitor, and a limiting block located at the rear end of the feeding track, the lifting mechanism drives the feeding track with the strip-shaped tantalum capacitor to move upward to a predetermined position so that the positioning column on the traction plate is embedded in the opposite positioning hole.
[0014] Further, the pressing mechanism comprises a pressing plate movably arranged above the feeding track, a pressing rod arranged at the lower end of the pressing plate and capable of contacting the strip-shaped tantalum capacitor, and a pressing cylinder connected and driving the pressing plate to move upward and downward.
[0015] Further, the feeding device comprises a feeding table, a feeding assembly rotatably arranged on the feeding table, and a gas sending nozzle arranged on one side of the feeding table opposite to the feeding device. The feeding assembly comprises a feeding conveyor belt and a plurality of feeding plates arranged at intervals around the feeding conveyor belt. A placing cavity for placing the chip tantalum capacitor strip is formed between two adjacent feeding plates. When the feeding plate at the front end is rotated downward to be flush with the feeding device, the chip tantalum capacitor strip is placed on the feeding plate under the action of gravity. At this time, the gas sending nozzle works to send the chip tantalum capacitor strip placed on the feeding plate into the feeding device.
[0016] Further, the receiving device comprises a receiving box arranged obliquely downward behind the trimming device.
[0017] Further, the traction mechanism comprises a traction cylinder and a connecting plate connected between the traction cylinder and the traction plate.
[0018] As can be seen from the above description of the present application, compared with the prior art, the automatic trimming process of the chip tantalum capacitor strip defined in the present application has the following beneficial effects: the automatic feeding, positioning, waste removal, and receiving of the chip tantalum capacitor strip are realized by the cooperation of the feeding device, the feeding device, the trimming device, the traction device, and the receiving device. Compared with manual trimming or single-strip conveying mechanism trimming, not only the whole strip can be trimmed at the same time, but also the consistency of the trimming size can be ensured. Manual trimming can only be performed on a single strip, and the size consistency cannot be ensured. Single-strip conveying mechanism trimming also relies on manual feeding and is performed on a single strip one by one, which is low in efficiency and cannot meet the requirements of mass production. The present application solves the problems existing in manual trimming and single-strip conveying mechanism trimming by relying on the cooperation between the devices, and the trimming efficiency is improved by 800% compared with manual trimming and by 300% compared with single-strip conveying mechanism trimming, thereby effectively reducing the production cost. The present application can be used for trimming the whole strip of the tantalum capacitor product in a continuous manner, can ensure that the product quality and appearance requirements are met, and can ensure that the size of the product after trimming is within the qualified range, thereby saving labor cost and improving production efficiency. BRIEF DESCRIPTION OF DRAWINGS
[0019] Figure 1 Structure diagram of the device used in the present application Figure One ;
[0020] Figure 2 Structure diagram of the device used in the present application Figure Two ;
[0021] Figure 3 Structure diagram of the device used in the present application Figure Three ;
[0022] Figure 4 Structure diagram of part of the device used in the present application Figure One ;
[0023] Figure 5 Structure diagram of the device used in the present application Figure Two ;
[0024] Figure 6 Structure diagram of the device used in the present application Figure Three ;
[0025] Figure 7 Structure diagram of the traction device
[0026] Figure 8 Structure diagram of the rib cutting lower mold
[0027] Figure 9 Structure diagram of the guide block
[0028] Figure 10 Structure diagram of the sheet tantalum capacitor strip
[0029] In the figure, 1 is the feeding device, 2 is the feeding device, 3 is the traction device, 4 is the rib cutting device, 5 is the receiving device, 6 is the sheet tantalum capacitor strip, 11 is the feeding table, 12 is the feeding assembly, 13 is the air jet nozzle, 14 is the feeding conveyor belt, 15 is the feeding plate, 16 is the driving assembly, 17 is the placement cavity, 21 is the feeding table, 22 is the feeding track, 23 is the lifting mechanism, 24 is the pressing mechanism, 241 is the pressing plate, 242 is the pressing rod, 243 is the pressing cylinder, 25 is the limiting block, 26 is the driving motor, 31 is the traction plate, 32 is the positioning block, 33 is the positioning column, 34 is the pushing plate, 341 is the connecting part, 342 is the pushing part, 35 is the traction mechanism, 351 is the traction cylinder, 352 is the connecting plate, 41 is the rib cutting table, 42 is the rib cutting lower mold, 421 is the placement slot, 422 is the moving slot, 43 is the rib cutting mechanism, 431 is the rib cutting upper mold, 432 is the elastic positioning column, 433 is the cutter assembly, 434 is the rib cutting cylinder, 435 is the mounting frame, 436 is the mounting seat, 437 is the cutter, 438 is the guide block, 4381 is the guide plate body, 4382 is the moving hole, 4383 is the positioning part, 4384 is the accommodation slot, 439 is the connecting spring, 44 is the compression spring, 61 is the frame, 62 is the tantalum capacitor unit, and 63 is the positioning hole. DETAILED DESCRIPTION
[0030] The present application is further described below through specific embodiments.
[0031] REFERENCE Figures 1 to 10As shown, an automatic rib cutting process of a chip tantalum capacitor strip, the specific operation is as follows: first, the neatly arranged chip tantalum capacitor strip is conveyed one by one to the feeding device 2 by the feeding device 1, the feeding device 2 receives the chip tantalum capacitor strip and drives it to move upward, the traction device 3 is connected with the chip tantalum capacitor strip and is brought into the rib cutting device 4 for rib cutting treatment, and the chip tantalum capacitor strip after completing the rib cutting treatment is pushed out to the receiving device 5 by the traction device 3 at the same time when the traction device 3 pulls the next chip tantalum capacitor strip into the rib cutting device 4.
[0032] Among them, the chip tantalum capacitor strip 6 includes a frame 61, a plurality of tantalum capacitor units 62 arranged at intervals on the frame 61, and a plurality of positioning holes 63 arranged at intervals along the length direction of the frame 61.
[0033] The feeding device 1 includes a feeding table 11, a feeding assembly 12 rotatably arranged on the feeding table 11, and a gas sending nozzle 13 arranged on one side of the feeding table 11 opposite to the feeding device 2, specifically, the feeding assembly 12 includes a feeding conveyor belt 14, a plurality of feeding plates 15 arranged at intervals around the feeding conveyor belt 14, and a driving assembly 16 arranged on the feeding table 11 and connected and driven to rotate the feeding conveyor belt 14, adjacent two feeding plates 15 form a placing cavity 17 for placing the chip tantalum capacitor strip, when the feeding plate at the front end is rotated downward to be flush with the feeding device 2, the chip tantalum capacitor strip 6 will be placed on the feeding plate 15 under the action of gravity, at this time, the gas sending nozzle 13 works to send the chip tantalum capacitor strip 6 placed on the feeding plate 15 into the feeding device 2.
[0034] The feeding device 2 includes a feeding table 21, a feeding rail 22 movably arranged on the feeding table 21 for receiving the chip tantalum capacitor strip, a lifting mechanism 23 connected and driven to move the feeding rail 22 up and down, a pressing mechanism 24 movably arranged above the feeding rail 22 to limit the position of the chip tantalum capacitor strip, a limiting block 25 located at the rear end of the feeding rail 22, and a driving motor 26 arranged on the feeding table 21 and connected and driven to work the feeding rail 22; when working, the lifting mechanism 23 can drive the feeding rail 22 to move downward to a lower predetermined position to be flush with the feeding plate 15 to receive the chip tantalum capacitor strip conveyed by the gas sending nozzle 13; then reset to move upward to an upper predetermined position to make the chip tantalum capacitor strip connected with the traction device 3; the limiting block 25 is arranged at the rear end of the feeding rail 22 to limit the position of the chip tantalum capacitor strip on the feeding rail 22, to ensure that the chip tantalum capacitor strip moving upward with the feeding rail 22 is connected with the traction device 3; specifically, the lifting mechanism 23 includes a lifting cylinder arranged on the feeding table 21 and connected with the feeding rail 22.
[0035] The pressing mechanism 24 includes a pressing plate 241 movably arranged above the feeding track 22, a pressing rod 242 arranged at the lower end of the pressing plate 241 and capable of contacting the strip-shaped tantalum capacitor, and a pressing cylinder 243 connected to and driving the pressing plate 241 to move up and down. The strip-shaped tantalum capacitor is fixed during the upward movement of the pressing mechanism 24, so that the strip-shaped tantalum capacitor is stably lifted to a predetermined position and the connection of the traction device 3 is prevented from being affected by the slip of the strip-shaped tantalum capacitor.
[0036] The traction device 3 includes a traction plate 31 capable of moving back and forth relative to the feeding device 2, a positioning block 32 arranged at the front end of the traction plate 31, a positioning column 33 arranged on the positioning block 32 and capable of being embedded in the positioning hole 63, a pushing plate 34 arranged on the traction plate 31 and located behind the positioning block 32, and a traction mechanism 35 connected to and driving the traction plate 31 to move back and forth. When the strip-shaped tantalum capacitor 6 is connected to the traction device 3, the lifting mechanism 23 drives the feeding track 22 with the strip-shaped tantalum capacitor to move upward to a predetermined position, so that the positioning column 33 on the traction plate 31 is embedded in the opposite positioning hole 63, and the connection of the strip-shaped tantalum capacitor 6 and the traction plate 31 is completed. Specifically, the pushing plate 34 includes a connecting portion 341 connected to the traction plate 31 and an inverted L-shaped pushing portion 342 connected to the connecting portion 341, and the positioning column 33 is located directly in front of the pushing portion 342. During operation, the pushing portion 342 can push the strip-shaped tantalum capacitor that has completed the trimming process out of the traction plate 31 to the material collecting device 5 when the next strip-shaped tantalum capacitor is pulled into the trimming device 4 by the traction plate 31. Further, the traction mechanism 35 includes a traction cylinder 351 and a connecting plate 352 connected between the traction cylinder 351 and the traction plate 31.
[0037] The trimming device 4 includes a trimming table 41, a trimming lower die 42 movably arranged on the trimming table 41 and used for placing the strip-shaped tantalum capacitor, a trimming mechanism 43 movably arranged above the trimming lower die 42 and used for trimming the strip-shaped tantalum capacitor, and a plurality of compression springs 44 connected between the trimming lower die 42 and the trimming table 41. When the trimming mechanism 43 moves downward to trim the strip-shaped tantalum capacitor, the strip-shaped tantalum capacitor will be separated from the positioning column 33 due to the downward movement of the trimming lower die 42 under the action of the plurality of compression springs 44, and at this time, the traction plate 31 can move to the direction of the feeding device 2 under the action of the traction mechanism 35 to be connected to the next strip-shaped tantalum capacitor. After the strip-shaped tantalum capacitor is trimmed, the trimming mechanism 43 moves upward to reset, and the trimming lower die 42 also moves upward to reset under the action of the plurality of compression springs 44, and at this time, the traction plate 31 can pull the next strip-shaped tantalum capacitor into the trimming lower die 42, and the pushing plate 34 can push the strip-shaped tantalum capacitor that has completed the trimming process out of the traction plate 31 to the material collecting device 5.
[0038] The cutting-under die 42 comprises a placing groove 421 for placing the chip tantalum capacitor strip and a moving groove 422 extending downwardly on one side of the placing groove 421 for the movement of the pushing plate 34. By arranging the moving groove 422, the pulling plate 41 can drive the positioning block 32 and the pushing plate 34 to move forward during the cutting process of the chip tantalum capacitor strip, and the work of the two is not affected.
[0039] The cutting mechanism 43 comprises a cutting-up die 431 arranged above the cutting-under die 42, a plurality of elastic positioning columns 432 connected between the cutting-up die 431 and the cutting table 41, a cutting knife assembly 433 arranged on the cutting-up die 431 opposite to the placing groove 421, a cutting cylinder 434 capable of pressing downwardly the cutting-up die 431, and a mounting frame 435 arranged on the cutting table 431 for mounting the cutting cylinder 434. Specifically, the cutting knife assembly 433 comprises a mounting seat 436 arranged on the cutting-up die 431, a plurality of cutting knives 437 arranged at intervals on the mounting seat 436 opposite to the plurality of tantalum capacitor units 62, a guide plate 438 arranged below the mounting seat 436, and a plurality of connecting springs 439 connected between the guide plate 438 and the mounting seat 436. The cutting cylinder 434 can press downwardly the mounting seat 436 to drive the plurality of cutting knives 437 to move downwardly to cut the chip tantalum capacitor strip in the placing groove 421. Further, the guide plate 438 comprises a guide plate body 4381, a plurality of moving holes 4382 arranged at intervals on the guide plate body 4381 for the upward and downward movement of the plurality of cutting knives 437, and a positioning portion 4383 arranged at the lower end of the guide plate body 4381 and abutting against the chip tantalum capacitor. The positioning portion 4383 is formed with a clearance groove 4384 extending upwardly from the bottom surface and opposite to the plurality of tantalum capacitor units 62, so that the positioning portion 4383 abuts against the frame 61 on both sides of the tantalum capacitor unit 62.
[0040] The receiving device 5 comprises a receiving box 5 arranged obliquely downwardly behind the cutting device 4.
[0041] The automatic cutting process of the chip tantalum capacitor strip based on the above device comprises the following steps.
[0042] Step 1: The whole batch of chip tantalum capacitor strips are placed in the placing cavity 17 one by one manually. When the feeding conveyor belt 14 is working, the feeding plate 15 is driven to move forward to move the chip tantalum capacitor strips forward. At the same time, the lifting mechanism 23 controls the feeding track 22 to move downwardly to the lower predetermined position. When the front end feeding plate 15 is turned downwardly to be flush with the feeding track 22, the air blowing nozzle 13 works to blow the chip tantalum capacitor on the front end feeding plate 15 to the feeding track 22 due to the gravity.
[0043] Step 2, the feeding track 22 works to receive the chip tantalum capacitor and transport it to the front end of the chip tantalum capacitor strip and abut against the limiting block 25, the lifting mechanism 23 controls the feeding track 22 to move upward to the predetermined position at the same time, so that the positioning column 33 is embedded into the opposite positioning hole 63, and the connection between the traction plate 31 and the chip tantalum capacitor strip is completed;
[0044] Step 3, the traction cylinder 351 works to drive the traction plate 31 to move away from the feeding track 22, so that the chip tantalum capacitor enters the placing groove 421 of the cutting rib lower die 42, the cutting rib cylinder 434 works to press down the mounting seat 436, so that the plurality of cutting knives 437 move downward to cut the chip tantalum capacitor strip in the placing groove 421, at this time, the chip tantalum capacitor strip will move downward with the cutting rib lower die 42, so that the positioning hole 63 is separated from the positioning column 33, and the traction plate 31 can move to the direction close to the feeding track 22 under the action of the traction cylinder 351 to be connected with the next chip tantalum capacitor strip;
[0045] Step 4, after the cutting rib work is completed, the cutting rib cylinder 434 resets, the cutting rib upper die 431 drives the plurality of cutting knives 437 to move upward to reset under the action of the plurality of elastic positioning columns 432, and the cutting rib lower die 42 also moves upward to reset under the action of the plurality of compression springs 44, then the traction cylinder 351 works to pull the next chip tantalum capacitor strip into the cutting rib lower die 42, during the process of entering the next chip tantalum capacitor strip, the traction plate 31 cooperates with the pushing plate 34 to push the chip tantalum capacitor strip which has completed the cutting rib processing out to the material collecting device 5, and the cutting rib and collecting work of the chip tantalum capacitor strip are completed.
[0046] The automatic cutting rib process of the chip tantalum capacitor strip defined in the application is cooperated with the feeding device 1, the feeding device 2, the cutting rib device 4, the traction device 3 and the material collecting device 5 to automatically feed, position, cut off waste, collect and the like of the chip tantalum capacitor strip, compared with manual cutting rib or single strip transmission mechanism cutting rib, not only the whole strip can be cut at the same time, but also the consistency of the cutting rib size can be ensured; wherein the manual cutting rib can only cut single strip, and the size consistency cannot be ensured, and the single strip transmission mechanism cutting rib also relies on manual feeding and cutting rib in sequence, which is low in efficiency and cannot meet the mass production operation; the application relies on the cooperation between the devices to solve the problems existing in the manual cutting rib and the single strip transmission mechanism cutting rib, the cutting rib efficiency is improved by 800% compared with manual cutting rib, and improved by 300% compared with the single strip transmission mechanism cutting rib, and the production cost is effectively reduced; the application can be used for cutting rib of mass continuous tantalum capacitor whole strip product, and can ensure to meet the product quality and appearance requirements, ensure that the size of the product after cutting rib is within the qualified range, so as to save the labor cost and improve the production efficiency.
[0047] The above description is only the preferred embodiment of the application, and therefore cannot limit the range of the application, that is, equivalent changes and modifications made according to the scope and content of the application should still be within the scope of the application.
Claims
1. An automatic tab cutting process for chip tantalum capacitor strips, characterized by: The specific operation is as follows: first, the strip-shaped tantalum capacitor is conveyed to the feeding device by the feeding device, the feeding device receives the strip-shaped tantalum capacitor and drives it to move upwards, the traction device is connected with the strip-shaped tantalum capacitor and is brought into the cutting device to perform cutting processing, and the strip-shaped tantalum capacitor which has completed the cutting processing is pushed out to the receiving device by the traction device when the traction device pulls the next strip-shaped tantalum capacitor into the cutting device; The strip-shaped tantalum capacitor comprises a frame, a plurality of tantalum capacitor units arranged at intervals on the frame, and a plurality of positioning holes arranged at intervals along the length direction of the frame. The traction device comprises a traction plate which can move back and forth relative to the feeding device, a positioning block arranged at the front end of the traction plate, a positioning column which can be embedded in the positioning hole and is arranged on the positioning block, a pushing plate arranged on the traction plate and located behind the positioning block, and a traction mechanism which is connected with and drives the traction plate to move back and forth, and the pushing plate can push the strip-shaped tantalum capacitor which has completed the cutting processing out to the receiving device when the traction plate pulls the next strip-shaped tantalum capacitor into the cutting device. The cutting device comprises a cutting table, a cutting lower die which is arranged on the cutting table and can move up and down and is used for placing the strip-shaped tantalum capacitor, a cutting mechanism which is arranged above the cutting lower die and can move up and down and is used for cutting the strip-shaped tantalum capacitor, and a plurality of compression springs which are connected between the cutting lower die and the cutting table, and when the cutting mechanism moves downwards to cut the strip-shaped tantalum capacitor, the strip-shaped tantalum capacitor will move downwards with the cutting lower die to make the positioning hole disengage from the positioning column under the action of the plurality of compression springs, at this time, the traction plate can move towards the feeding device under the action of the traction mechanism and be connected with the next strip-shaped tantalum capacitor.
2. The automatic cutting process of the chip tantalum capacitor strip according to claim 1, characterized in that: The pushing plate comprises a connecting portion which is connected with the traction plate and a reverse L-shaped pushing portion which is connected with the connecting portion, the cutting lower die comprises a placing groove which is used for placing the strip-shaped tantalum capacitor and a moving groove which is arranged on one side of the placing groove and is used for the pushing plate to move downwards, and the positioning column is located in front of the pushing portion.
3. The automatic tab cutting process of a chip tantalum capacitor strip according to claim 1, characterized in that: The cutting mechanism comprises a cutting upper die which is arranged above the cutting lower die, a plurality of elastic positioning columns which are connected between the cutting upper die and the cutting table, a cutting knife assembly which is arranged on the cutting upper die and is opposite to the placing groove, and a cutting cylinder which can press downwards the cutting upper die.
4. The automatic tab cutting process of a chip tantalum capacitor strip according to claim 3, characterized in that: The cutting knife assembly comprises a mounting seat which is arranged on the cutting upper die and a plurality of cutting knives which are arranged at intervals on the mounting seat and are opposite to the plurality of tantalum capacitor units one by one, and the cutting cylinder can press downwards the mounting seat to make the plurality of cutting knives move downwards to cut the strip-shaped tantalum capacitor in the placing groove.
5. The automatic tab cutting process of a chip tantalum capacitor strip according to claim 1, characterized in that: The feeding device comprises a feeding track which can move up and down and is used for receiving the strip-shaped tantalum capacitor, a lifting mechanism which is connected with and drives the feeding track to move up and down, a pressing mechanism which is arranged above the feeding track and can move up and down and is used for limiting the position of the strip-shaped tantalum capacitor, and a limiting block which is located at the rear end of the feeding track, and the lifting mechanism drives the feeding track which receives the strip-shaped tantalum capacitor to move upwards to a predetermined position so that the positioning column on the traction plate is embedded in the opposite positioning hole.
6. The automatic tab cutting process of a chip tantalum capacitor strip according to claim 5, characterized in that: The pressing mechanism comprises a pressing plate which can move up and down and is arranged above the feeding track, a pressing rod which is arranged at the lower end of the pressing plate and can be in contact with the strip-shaped tantalum capacitor, and a pressing cylinder which is connected with and drives the pressing plate to move up and down.
7. The automatic tab cutting process of a chip tantalum capacitor strip according to claim 1, characterized in that: The feeding device comprises a feeding table, a feeding assembly rotatably arranged on the feeding table, and a gas sending nozzle arranged on one side of the feeding table opposite to the feeding device. The feeding assembly comprises a feeding conveyor belt and a plurality of feeding plates arranged at intervals around the feeding conveyor belt. Adjacent two feeding plates form a placing cavity for placing the strip-shaped tantalum capacitor. When the feeding plate at the front end is rotated downward to be flush with the feeding device, the strip-shaped tantalum capacitor is placed on the feeding plate under the action of gravity. At this time, the gas sending nozzle works to send the strip-shaped tantalum capacitor placed on the feeding plate into the feeding device.
8. The process of claim 1, wherein the process is characterized by: The collecting device comprises a collecting box arranged obliquely downward behind the rib cutting device.
9. The automatic tab cutting process of a chip tantalum capacitor strip according to claim 1, wherein: The traction mechanism comprises a traction cylinder and a connecting plate connected between the traction cylinder and the traction plate.
Citation Information
Patent Citations
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CN111703853A
Multi-core-group capacitor strip trimming machine and working method thereof
CN112786315A
Rib cutting and forming equipment with feeding device
CN216037203U