TWM606268U - Improved structure of cutting tool for electrode patch - Google Patents

Abstract

This creation relates to an improved structure of a cutting tool for electrode patches, which includes a punching shaft and a cutting tool seat that are connected to each other. The cutting tool seat has a tool surface on which at least one cutting tool is provided. , The cutting knife has a geometric shape, the cutting knife includes a side cutting knife with two protrusions and a first end cutting knife, the first end cutting knife is located adjacent to an end of the cutting tool seat, the first The end cutter has at least two opposite ends. Each opposite end of the first end cutter is provided with a second end cutter. The first end cutter is connected with the side cutters on both sides, and the two The side cutter is connected with the two second end cutters, the first end cutter, the two side cutters, and the two second end cutters are enclosed to form a cutting area inside the material cutter, and the A unique notch is provided between the two second-end cutting knives of the cutting knife. The notch is located where the two second-end cutting knives do not touch each other. The cutting knife cuts from one of the two second-end knives. The two end cutters are continuous and complete to the other second end cutter of the two second end cutters, and the notch is used to prevent an electrode wire from being cut; the aforementioned structure makes the cutter have an integrated production line Conveyance and efficiency integrated design.

Description

Improved structure of cutting tool for electrode patch

This creation is about a kind of cutting tool structure, which is mainly for the cutting tool used to cut the electrode patch during the production, so that it has the effect of facilitating the continuous cutting of the production line and the simple manufacturing of the electrode sheet, thereby greatly improving the electrode Improved structure of cutting tool for electrode patch for efficient patch manufacturing.

According to this, the current electrode treatment device used for skin is commonly used to treat and relieve various nerve and muscle pain, and has the effects of improving neuromuscular excitability, adjusting meridian function, and improving blood circulation. The electrode treatment device is often used in conjunction with skin electrode patches, which are attached to the body to be treated or relieved. The skin electrode patches have a power supply and a circuit that can generate positive and negative diode current pulse outputs. The structure is hidden inside to form a seamless waterproof body structure combined with the appearance, which is used as a self-adhesive patch device for generating electrode pulse output.

The structure and manufacture of the conventional electrode patch are shown in Figures 1 and 1a. A cutting device 90 cuts a patch strip 92. The cutting device 90 has a cutting knife 91. 91. Cut the patch strip 92 at equal intervals to form a piece of electrode patch 93; wherein, the electrode patch 93 needs to be separately made into an electrode lead 94. One end of the electrode lead 94 is a power connector 941. The connector 941 is used as an input channel of an external power source, and an end of the electrode wire 94 opposite to the power connector 941 is a bare conductive end 942, and the power connector 941 is electrically connected to the bare conductive end 942.

Wherein, the electrode patch 93 includes a batch of coated substrate layers 931 and a conductive adhesive layer 932. One surface of the batch of coated substrate layers 931 is bonded with an adhesive layer 9311; the conductive adhesive layer 932 includes an adhesive layer body 9321, A conductive layer 9322 is adhered to one surface of the adhesive layer body 9321, and the adhesive A release layer 9323 (such as release paper, etc.) is attached to the other side of the adhesive layer body 9321, that is, the release layer 9323 is combined with the adhesive layer body 9321. When assembling, the adhesive layer 9311 of the substrate layer 931 is first bonded to the exposed conductive ends 942 on the electrode wire 94, and then the substrate layer 931 and the conductive adhesive layer 932 are pressed and bonded to make the electrode The wire 94 is fixed between the batch of coating substrate layer 931 and the conductive adhesive layer 932, and is electrically connected to the electrode wire 94 and the conductive layer 9322. At this time, the power connector 941 of the electrode wire 94 protrudes Outside, as shown.

In the aforementioned structure and manufacturing method of the skin electrode patch 93, it must be assembled manually. The skin electrode patch 93 is first cut to shape, and then the electrode lead 94 is manually set on the skin electrode patch 93. After coating the substrate layer 931 or the conductive adhesive layer 932, the pressing operation is performed; this is not conducive to the increase of the assembly speed of the production line, and the design is not ideal. Therefore, how to improve the defects of the conventional electrode patch and its manufacturing should be an important direction that the industry should strive to solve and overcome.

For this reason, in view of the shortcomings in the manufacturing of the existing electrode patch and the fact that the design of the manufacturing tool is not ideal, the creator of this case set out to develop its solution, hoping to develop a more convenient manufacturing and assembly The improved structure of the cutting tool of the electrode patch and the efficiency is to serve the public and promote the development of this industry. After a long time of thinking, the original creation came into being.

The purpose of this creation is to provide an improved structure for the cutting tool of the electrode patch, which can facilitate the production line assembly of the electrode lead in the electrode patch manufacturing process.

Another purpose of this creation is to provide an electrode patch that can be punched and cut by the cutting knife, without the need for subsequent electrode wire assembly operations, and has the efficiency of convenient cutting of the electrode patch assembly Sexual integrator.

The technical means used in this creation to achieve the above-mentioned purpose includes a connected punching shaft and a cutting tool holder. The cutting tool holder has a tool surface, and at least one cutting knife is provided on the tool surface. The material knife is a geometric shape, and the material knife includes a side knife with two protrusions and A first end cutter, the first end cutter is located adjacent to an end of the cutting tool seat, the first end cutter has at least two opposite ends, and each opposite end of the first end cutter is provided with one The second end cutter, the first end cutter is connected with the side cutters on both sides, and the two side cutters are connected with the two second end cutters, the first end cutter, the two sides The cutter and the two second end cutters are enclosed to form a cutting area inside the cutter, and there is a unique gap between the two second end cutters of the cutter, and the gap is located at the two The second end cutters are not in contact with each other. The material cutter is continuous and complete from one of the second end cutters of the two second end cutters to the other second end cutter of the two second end cutters And the gap is to prevent an electrode wire from being cut.

In the aforementioned structure, the tool surface is a horizontal tool surface.

In the foregoing configuration, the cutting knife is in a square or rectangular configuration.

In the aforementioned structure, the cutting knife is in the shape of a circle, an oval or an egg.

In the aforementioned structure, the punching shaft and the cutting tool seat are integrated into a punching shaft body, and the punching shaft body is used for setting the cutting knife.

In the foregoing configuration, the connection between the first end cutter and the two side cutters is like a rounded or arc-end corner connection, and the connection between the two side cutters and the two second end cutters is like Connection of rounded corners or arc end corners.

The foregoing structure, wherein the cutting knife is used to cut an electrode strip, the electrode strip includes a batch-coated base material part and a conductive adhesive part of the same width and bonded together, and the bottom of the electrode strip A release layer is connected, and the release layer is wider and slightly protrudes from the electrode section.

In the foregoing structure, an electrode lead is inserted between the batch of coated substrate part and the conductive adhesive part, and the electrode lead protrudes from the electrode section.

In the foregoing configuration, the electrode strip has a strip end edge, the two second end cutters are aligned or slightly protruded from the strip end edge, and the strip end edge is located on the electrode strip in the Wait for the electrode wire to protrude from one side.

The technical means of this creation further includes a drive shaft and a cutting tool holder connected to each other. The cutting tool holder has a tool surface, and at least one cutting knife is arranged on the cutting tool surface. Geometric shape, the cutting knife includes a side cutting knife with two protrusions and a first end cutting The first end cutter is located adjacent to one end of the cutting tool seat, the first end cutter has at least two opposite ends, and each opposite end of the first end cutter is provided with a rounded or The end corner cutter of the arc end corner, the first end cutter is connected with the side cutters on both sides, and the two side cutters are connected with the two end corner cutters, the first end cutter, the The two side cutters and the two end corner cutters are enclosed to form a cutting area inside the cutter, and there is a only gap between the two end corner cutters of the cutter, and the gap is located at the two The corner cutters are not in contact with each other. The cutting knife is continuous and complete from one corner cutter of the two-end corner cutter to the other end of the two-end corner cutter, and the gap is used as a prevention One electrode wire was cut.

In the aforementioned structure, the drive shaft is a punching shaft.

In the aforementioned structure, the tool surface is a horizontal tool surface.

In the aforementioned structure, the cutting knife is semicircular, semi-elliptical or semi-egg-shaped.

In the aforementioned structure, the punching shaft and the cutting tool seat are integrated into a punching shaft body, and the punching shaft body is used for setting the cutting knife.

In the aforementioned structure, the connection between the first end cutter and the two side cutters is, for example, rounded corners or arced corners.

In the foregoing structure, the cutting tool seat is a roller body for setting the cutting tool.

The foregoing structure, wherein the cutting knife is used to cut an electrode strip, the electrode strip includes a batch-coated base material part and a conductive adhesive part of the same width and bonded together, and the bottom of the electrode strip A release layer is connected, and the release layer is wider and slightly protrudes from the electrode section.

In the foregoing structure, an electrode lead is inserted between the batch of coated substrate part and the conductive adhesive part, and the electrode lead protrudes from the electrode section.

In the foregoing configuration, the electrode strip has a strip end edge, the bottom edges of the two end corner cutters are aligned or slightly protruded from the strip end edge, and the strip end edge is located on the electrode strip On one side of the electrode wires protruding.

In order to enable your reviewer to have a better understanding and understanding of the technical features of this creation and the effects achieved, I would like to provide a better embodiment diagram and detailed explanations. After Ming Ru:

1: Electrode patch group

1B: Slitting remaining material belt

10: Electrode patch

11: Approval of base material department

10A: Electrode slitting

10B: Split edge

12: Conductive Adhesive Department

121: Glue layer

122: conductive layer

123: Release layer

20: Substrate transfer device

21: The first transfer roller

22: The second transmission roller

23: The third transmission roller

30: Positioning conveyor

31: Conveyor belt

311: positioning fixture

32: drive wheel

40: Fit the cutting module

41: Peel off guide

42: Undertake board

43: Cutting tool unit

430: Gap

431: stamping shaft

431a: stamping shaft

431c: drive shaft

432: Cutting tool holder

433: Cutting Knife

434: Trimming Area

435: side cutter

436: Side Cutter

437: first end cutter

438: second end cutter

438a: Corner cutter

439: second end cutter

439a: End corner cutter

44: pressing wheel

45: pressing wheel

50: Guide device

51: Guide wheel

511: wheel knife

60: Finished product conveyor

61: Transmission Department

100: Electrode wire

101: Wire connector

102: Electrode terminal

432c: Roller body

432P: Tool face

432A, 432B: cutting tool seat end

Figure 1 is a schematic diagram of the conventional electrode patch manufacturing and cutting structure.

Figure 1a is a schematic diagram of the electrode lead assembly structure of the conventional electrode patch.

Figure 2 is a schematic diagram of the creative process.

Figure 3a is a three-dimensional schematic diagram of the first embodiment of the creative cutting tool unit.

Figure 3b is a schematic diagram of the arrangement of multiple cutting knives in the first embodiment of the creative cutting tool unit.

Figure 3c is a three-dimensional schematic diagram of the second embodiment of the creative cutting tool unit.

Figure 3d is a schematic diagram of the arrangement of multiple cutting knives in the second embodiment of the creative cutting tool unit.

Figure 4 is a three-dimensional schematic diagram of the cutting operation of the cutting tool unit created.

Figure 5a is a three-dimensional schematic diagram of the cutting operation of the third embodiment of the creative cutting tool unit.

Figure 5b is a three-dimensional schematic diagram of the third embodiment of the created cutting tool unit.

Figure 5c is a partial schematic diagram of the cutting operation of the third embodiment of the creative cutting tool unit.

Figure 5d is a schematic diagram of the change of the punching shaft body of the cutting tool unit created.

Figure 6 is a schematic diagram of the arrangement of multiple cutting knives in the third embodiment of the cutting tool unit created.

Figure 7a is a three-dimensional schematic diagram of the fourth embodiment of the cutting tool unit created.

Figure 7b is a schematic diagram of the arrangement of multiple cutting knives in the fourth embodiment of the cutting tool unit created.

Figure 8a is a three-dimensional schematic diagram of the cutting operation of the fifth embodiment of the creative cutting tool unit.

Figure 8b is a three-dimensional schematic diagram of the fifth embodiment of the cutting tool unit created.

Figure 8c is a three-dimensional schematic diagram of the sixth embodiment of the cutting tool unit created.

Figure 9 is a partial schematic diagram of the cutting operation of the fifth embodiment of the creative cutting tool unit.

Please refer to Figure 2 to illustrate the production line structure of the improved structure of the cutting tool of the electrode patch of the creation. These drawings are schematic diagrams for convenience of description, and they only illustrate the basic structure of the creation in a schematic way. Moreover, the displayed composition drawing is not limited to the shape and state of the actual implementation. The identification mark, shape and size ratio of the actual implementation is an optional design. As shown in the figure, the improved structure of the cutting tool of the electrode patch of this invention is used to assemble and manufacture the electrode patch group 1 as shown in Figure 2. The electrode patch group 1 has a plurality of electrode patches 10; The production line includes a substrate transfer device 20, a positioning and conveying device 30, a laminating and cutting module 40, a guide device 50, and a finished product transfer device 60; wherein, the substrate transfer device 20 includes a first transfer roller on one side 21 and the second conveying roller 22 and the third conveying roller 23 on the other side. In this embodiment, the first conveying roller 21 is used to convey and provide the strip-shaped batching substrate portion 11, and then convey to the positioning conveying Device 30; the second transmission roller 22, the third transmission roller 23 are used to provide strip-shaped conductive adhesive part 12, release layer 123, the conductive adhesive part 12 consists of a glue layer 121 and the glue layer 121 is composed of a conductive layer 122, the conductive adhesive part 12 and the release layer 123 are bonded together during transmission, and then the conductive adhesive part 12 attached with the release layer 123 is transferred to a bonding cut The pressing wheel 45 of the module 40. In addition, the combination of the aforementioned batch of coated substrate portion 11 and conductive adhesive portion 12 is not limited.

The positioning and conveying device 30 includes a conveyor belt 31 and transmission wheels 32 located at both ends of the conveyor belt 31. In this embodiment, the conveyor belt is cyclically running, and the transmission wheel 32 is used to provide the conveyor belt 31 with a circular displacement. The power; the conveyor belt 31 is provided with a plurality of positioning fixtures 311, the positioning fixtures 311 used to locate an electrode wire 100, the electrode wire 100 is provided with a wire socket 101 and an electrode terminal 102 at both ends. When the positioning and conveying device 30 is assembled and used, the positioning jig 311 is used to position the electrode lead 100. In this embodiment, the electrode terminal 102 is embedded and set on the positioning jig 311 to position the electrode lead 100 On the conveyor belt 31, and then move and convey.

The laminating and cutting module 40 is arranged at a subsequent part of the positioning and conveying device 30, and includes a peeling guide 41, pressing wheels 44, 45, a receiving plate 42 and a cutting tool unit 43; the peeling guide 41 is Inclinedly connected to the end of the positioning and conveying device 30, the front end of the peeling guide 41 corresponds to the first conveying roller 21 used to convey the batch of coated substrate portion 11, and the first conveying roller 21 is also located at the conveying The upper part of the rear end of the belt 31; the pressing wheels 44, 45 are correspondingly arranged at the subsequent parts of the peeling guide 41, the width of the conductive adhesive part 12 is equal to or equal to the width of the batch of coated substrate part 11, and the conductive The adhesive part 12 is transferred to the laminating and cutting module 40 via the pressing wheel 45, and the conductive adhesive part 12 and the coating substrate part 11 are pressed into a strip-like composition by the pressing wheels 44, 45 The electrode strip 10A is connected with the release layer 123 below the electrode strip 10A, and the release layer 123 is wider and slightly protrudes from the electrode strip 10A, so that the electrode strip formed on the receiving plate 42 is divided The strip 10A is combined with the release layer 123 to be cut into a strip shape; the receiving plate 42 is arranged at the subsequent positions of the pressing wheels 44 and 45, and the cutting tool unit 43 is arranged above the appropriate position of the receiving plate 42.

Please also refer to Figure 3a, which is the first embodiment of the creative cutting tool unit 43. The cutting tool unit 43 includes a punching shaft 431 and a cutting tool seat 432 that are connected to each other. The punching shaft 431 can also Other types of drive shafts are not limited; the cutting tool holder 432 has a horizontal tool surface 432P, and a cutting knife 433 is arranged on the cutting tool surface 432P. The cutting knife 433 has a geometric shape. The material knife 433 includes two protruding side cutters 435, 436 and a first end cutter 437, the first end cutter 437 is located adjacent to one end of the cutting tool holder 432 (as shown in the figure) End 432A), the first end cutter 437 has at least two opposite ends, and the two opposite ends are adjacent to the other end of the cutter holder 432 (as shown in the figure, the cutter holder end 432B). Each opposite end of the one end cutter 437 is provided with a second end cutter 438, 439 respectively. The first end cutter 437 is connected to the side cutters 435, 436 on both sides, and the two side cutters 435 , 436 are connected to the two second end cutters 438, 439. Furthermore, the connection between the first end cutter 437 and the side cutters 435, 436 is like a rounded or arc-end corner connection. The connection of the side cutters 435, 436 and the second end cutters 438, 439 is similar to the connection of rounded corners or arc end corners. The first end cutter 437, the two side cutters 435, 436 and the Two second-end cutting knives 438, 439 are enclosed to form a cut-shaped area 434 inside the cutting knife 433, and a unique notch 430 is provided between the two second-end cutting knives 438, 439 of the cutting knife 433. The gap 430 is located in the second The two end cutting knives 438 and 439 do not touch each other, that is, the notch 430 does not have the setting of the cutting knife 433; wherein, the cutting knife 433 cuts from the second end cutting knife 438 to the other second end The knife 439 or from the second end cutting knife 439 to the other second end cutting knife 438 is continuous and complete, and the notch 430 is used to prevent the electrode lead 100 from being cut during punching and cutting.

Please also refer to Figure 3b, which is a schematic diagram of the arrangement of multiple cutting knives 433 in the first embodiment of the creative cutting tool unit 43. As shown in the figure, the cutting tool seat 432 is provided with two cutting materials on the tool surface 432P Knife 433, but the number of the cutting knife 433 is not limited; and the composition of the cutting knife 433 is the same as that shown in Figure 3a, and will not be repeated. In the first embodiment, the cutting knife 433 is slightly square, rectangular, or other geometric shapes, and the cutting knife 433 of these geometric shapes has rounded corners and the notch 430.

Please also refer to Fig. 3c, which is the second embodiment of the creative cutting tool unit 43, which is based on the structure of the first embodiment and is transformed and designed. The difference is that the cutting knife 433 is a circle The composition of the arc geometry, the arc geometry can be round, oval or egg-shaped. That is, the central part of the first end cutting knife 437 of the cutting knife 433 forms the circular arc geometry to constitute one end of the cutting knife 433, and the side cutting knives 435, 436, the second end cutting knives 438, 439 and Both sides of the first end cutter 437 form the circular arc geometry to form the two sides of the cutting knife 433, and the notch 430 forms the circular arc geometry to form the notch at the other end of the cutting knife 433. Similarly, the The notch 430 does not have the setting of the cutting knife 433.

Please also refer to Figure 3d, which is a schematic diagram of the arrangement of multiple cutting knives 433 in the second embodiment of the creative cutting tool unit 43. As shown in the figure, the cutting tool seat 432 is provided with two cutting materials on the tool surface 432P Knife 433, but the number of the cutting knife 433 is not limited; and the shape and composition of the cutting knife 433 are the same as that shown in Figure 3c, and will not be repeated.

As shown in FIG. 2, the guiding device 50 is disposed at the rear end of the fitting and cutting module 40, and the guiding device 50 includes a guiding wheel 51. The finished product conveying device 60 is arranged at a subsequent position of the guiding device 50, and the finished product conveying device 60 includes a conveying part 61.

When the modified structure of the cutting tool for creating electrode patches is applied, the batch of coated substrate 11 is pulled backward by a pulling force to move, and the batch of coated substrate 11 will eventually be moved by the first transfer roller The wheel 21 enters the upper part of the rear end of the conveyor belt 31, and makes the electrode lead 100 on the conveyor belt 31 adhere to a glue layer (not shown) of the batch of coated substrate part 11, and then follow the batch of substrate The material portion 11 is displaced, and in this embodiment, the electrode terminal 102 of the electrode lead 100 is adhered to the adhesive layer of the batch of coated substrate portion 11; at this time, the electrode lead 100 also enters the peeling guide 41 and continue to move, and the electrode lead 100 is received and supported by the peeling guide 41. The conductive adhesive portion 12 is also pulled back by a pulling force to move and move. The conductive adhesive portion 12 finally enters the receiving plate 42 by the pressing wheel 45, because the batch of covering the base material portion 11 and the conductive adhesive portion 12 Enter the receiving plate 42 of the laminating and cutting module 40 through the pressing wheels 44, 45, so that the batch of coated substrate portion 11 and the conductive adhesive portion 12 are pressed by the pressing wheels 44, 45 to bond to each other to form the The electrode strip 10A, at this time, the electrode lead 100 (electrode terminal 102) is clamped and set between the batch of coated substrate portion 11 and the conductive adhesive portion 12, that is, the electrode strip 10A follows the batch of coated substrate portion 11 The bonding with the conductive adhesive part 12 is completed, and the electrode wire 100 is also attached separately, and the wire socket 101 protrudes outside the electrode strip 10A. In this embodiment, the electrode wire 100 The electrode terminal 102 is clamped in the electrode sub-strip 10A (the coating substrate portion 11 and the conductive adhesive portion 12), and the wire socket 101 of the electrode lead 100 protrudes outside the electrode sub-strip 10A.

Please also refer to Figure 4, the electrode strip 10A (adhesive strip covering the base material part 11 and the conductive adhesive part 12) with the electrode lead 100 sandwiched and firmly attached is then moved by the bearing plate 42 , And when passing through the cutting tool unit 43, the electrode strip 10A will be cut by the cutting knife 433, but the release layer 123 combined under the electrode strip 10A will not be cut by the cutting knife 433. Cut to and maintain the integrity of the release layer 123, and the second end cutters 438, 439 are aligned or slightly protruding from the electrode strip 10A at the end edge 10B of the electrode strip 10A. 10B is located on the side of the electrode strip 10A protruding from the electrode leads 100, as shown in Figures 2 and 4, in a state where the second end cutters 438, 439 are aligned with the strip edge 10B; and The arrangement of the notch 430 can prevent the electrode lead 100 from being cut. Please refer to Figure 2. The strip 1B after cutting will be separated, so that the electrode patch 10 is formed on the release layer 123 The production. The punching shaft 431 is connected to a punching machine (not shown in the figure), and the punching shaft 431 is driven by the punching machine to move up and down quickly, so that the cutting knife 433 performs rapid cutting. After being cut, the single-piece electrode patch 10 adhered on the release layer 123 is arranged and then passed through the guide device 50, and is cut off by the knife 511 on the guide wheel 51 to form The electrode patch group 1 And then land on the conveying part 61 of the finished product conveying device 60 for finished product collection. As shown in the figure, the electrode patch group 1 is cut by the wheel cutter 511 into a group of four electrode patches 10 and then glued. It is set on the release layer 123 cut into strips, but the number of the electrode patches 10 is not limited.

Please refer to Figures 5a, 5b, and 5c, which is the third embodiment of the creative cutting tool unit 43, which is based on the structure of the first embodiment and is transformed and designed. The difference lies in: the cutting knife 433 It is provided without the second end cutters 438, 439, and the end edges of the side cutters 435, 436 respectively extend inward in the direction of the cutting tool holder end 432B with a rounded or arced end angle The end corner cutters 438a, 439a, that is, the end corner cutters 438a, 439a are provided on the outer side of each opposite end of the first end cutter 437, and the end corner cutters 438a, 439b are connected to the side cutters Knives 435, 436; and the end corner cutters 438a, 439b are formed between the gap 430 to prevent the electrode lead 100 from being cut during punching and cutting, and the end corner cutters 438a, 439b are just right when cutting. Corresponding to the strip end 10B of the electrode strip 10A, a complete and separable electrode patch 10 can also be cut out.

Please also refer to Fig. 5d. In all the embodiments disclosed in this creation of the cutting tool unit 43, there is a punching shaft 431a. The punching shaft 431a is the aforementioned punching shaft 431 and the cutting tool holder. The combination of 432 has the effect of simplifying components, and it is not limited that the stamping shaft 431a is cylindrical, square column or other geometrical column. The punching shaft 431a can have the functions of the punching shaft 431 and the cutting tool holder 432 at the same time, that is, the cutting knife 433 is directly set on the tool surface 432P below the punching shaft 431a.

Please also refer to Fig. 6, which is a schematic diagram of the arrangement of multiple cutting knives 433 in the third embodiment of the creative cutting tool unit 43. As shown in the figure, the cutting tool seat 432 is provided with two cutting knives 433, but The number of the cutting knives 433 is not limited; and the composition of the cutting knives 433 is the same as that shown in FIG. 5b, and will not be repeated.

Please also refer to Fig. 7a, which is the fourth embodiment of the creative cutting tool unit 43, which is based on the structure of the third embodiment and is transformed and designed. The difference is that the cutting knife 433 is a circle The composition of the arc geometry, the arc geometry can make the cutting knife 433 have a semicircular, semi-elliptical or semi-egg shape. That is, the central part of the first end cutting knife 437 of the cutting knife 433 forms the circular arc geometry to constitute one end of the cutting knife 433, and the side cutting knives 435, 436, and end corner cutting knives The two sides of 438a, 439a and the first end cutter 437 form the circular arc geometry to form the two sides of the cutting knife 433, and the notch 430 forms the circular arc geometry to form the notch state at the other end of the cutting knife 433 Similarly, the gap 430 does not have the setting of the cutting knife 433.

Please also refer to Figure 7b, which is a schematic diagram of the arrangement of multiple cutting knives 433 in the fourth embodiment of the creative cutting tool unit 43. As shown in the figure, the cutting tool seat 432 is provided with two cutting knives 433, but The number of the cutting knives 433 is not limited; and the composition of the cutting knives 433 is the same as that shown in FIG. 7a, and will not be repeated.

Please refer to Figures 8a, 8b, and 9 together. This is the fifth embodiment of the creative cutting tool unit 43. It is based on the structure of the third embodiment and is transformed and designed. The difference is that a drive shaft 431c is used. (Such as a rotating shaft) instead of the punching shaft 431, and the cutting tool holder 432 is replaced by a roller body 432c, that is, the roller body 432c is provided with at least one cutting knife 433. The illustration in this embodiment is provided There are a plurality of the cutting knives 433, and the drive shaft is connected to drive the roller body 432c to rotate to perform a cutting operation.

Please also refer to Fig. 8c, which is the sixth embodiment of the creative cutting tool unit 43, which is based on the structure of the fifth embodiment, and the design is changed. The difference is that the cutting knife 433 is a circle The composition of the arc geometry, the arc geometry can make the cutting knife 433 have a semicircular, semi-elliptical or semi-egg shape. That is, the central part of the first end cutter 437 of the cutting knife 433 forms the circular arc geometry to constitute one end of the cutting knife 433, and the side cutters 435, 436, end corner cutters 438a, 439a and the first end The two sides of the cutting knife 437 at one end form the circular arc geometry to form the two sides of the cutting knife 433, and the notch 430 forms the circular arc geometry to form the cut state at the other end of the cutting knife 433. Similarly, the notch 430 does not have the setting of the cutting knife 433. In addition, the bottom edges of the two end corner cutters 438a, 439a are aligned or slightly protrude from the end edge 10B of the slit.

In the configuration of the previously disclosed embodiment, the cutting knife 433 can be slightly square, rectangular or other geometric shapes, and the cutting knife 433 of these geometric shapes has rounded corners and the notch 430.

The improved structure of the cutting tool for creating electrode patches, with the above-mentioned structure, can facilitate the production line assembly and setting of electrode wires in the electrode patch manufacturing process, and has an excellent assembly Assembly manufacturing efficiency and quality stability; at the same time, this creation enables the cutting knife to be set in a stamping or roller type, and has an excellent strength structure design, and facilitates the overall production line transportation and cutting efficiency Integration.

This creation has been explained in more detail by the above-mentioned preferred specific embodiments, but this creation is not limited to the above-exemplified embodiments. Any changes and modifications to these structures within the scope of the technical ideas disclosed in this creation are still It belongs to the scope of this creation.

43: Cutting tool unit

431: stamping shaft

432: Cutting tool holder

433: Cutting Knife

434: Trimming Area

435: side cutter

436: Side Cutter

437: first end cutter

438: second end cutter

439: second end cutter

430: Gap

432P: Tool face

432A: Cutting tool seat end

432B: cutting tool seat end

Claims (19)

An improved structure for a cutting tool for an electrode patch, which comprises a punching shaft and a cutting tool holder connected to each other. The cutting tool holder has a tool surface, and at least one cutting tool is provided on the tool surface. The cutting knife has a geometric shape. The cutting knife includes a side cutting knife with two protrusions and a first end cutting knife. The first end cutting knife is located adjacent to an end of the cutting tool seat, and the first end cutting The knife has at least two opposite ends. Each opposite end of the first end cutter is provided with a second end cutter. The first end cutter is connected to the side cutters on both sides, and the two side cutters The knife is connected with the two second end cutting knives, the first end cutting knife, the two side cutting knives and the two second end cutting knives are enclosed to form a cutting area inside the cutting knife, and the cutting material A unique notch is provided between the two second-end cutting knives of the knife. The notch is located where the two second-end cutting knives do not touch each other. The cutting knife cuts from one of the second ends of the two second-end knives. The cutting knife is continuous and complete to the other second end cutting knife of the two second end cutting knives, and the gap is used to prevent an electrode wire from being cut. According to the improved structure of the cutting tool of the electrode patch described in item 1 of the scope of patent application, the tool surface is a horizontal tool surface. According to the improved structure of the cutting tool of the electrode patch described in item 1 of the scope of patent application, the cutting tool has a square or rectangular configuration. According to the improved structure of the cutting tool of the electrode patch described in the first item of the patent application, the cutting tool is in the shape of a circle, an oval or an egg. According to the improved structure of the electrode patch cutting tool described in the first item of the patent application, the punching shaft and the cutting tool seat are integrated into a punching shaft, and the punching shaft is used to set the cutting knife. According to the improved structure of the cutting tool of the electrode patch described in item 1 of the scope of patent application, the connection between the first end cutting knife and the two side cutting knives is such as rounded corners or arc end corners. The connection between the side cutters and the two second end cutters is like rounded corners or arc-end corners. According to the improved structure of the electrode patch cutting tool described in the first item of the scope of patent application, the cutting tool cuts an electrode strip, and the electrode strip includes a width phase When a batch of coated substrate part and a conductive adhesive part are bonded together, a release layer is connected below the electrode strip, and the release layer is wider and slightly protrudes from the electrode strip. According to the improved structure of the cutting tool of the electrode patch described in item 7 of the scope of patent application, an electrode lead is inserted between the batch of coated substrate part and the conductive adhesive part, and the electrode lead protrudes from the Electrode slitting. According to the improved structure of the electrode patch cutting tool described in item 8 of the scope of patent application, the electrode strip has a strip edge, and the two second end cutting blades are aligned or slightly protruding from the strip At the end edge, the end edge of the strip is located on the side where the electrode strips protrude from the electrode wires. An improved structure for a cutting tool for an electrode patch, which comprises a drive shaft and a cutting tool holder connected to each other. The cutting tool holder has a tool surface on which at least one cutting tool is provided. The cutting knife has a geometric shape. The cutting knife includes a side cutting knife with two protrusions and a first end cutting knife. The first end cutting knife is located adjacent to an end of the cutting tool seat, and the first end cutting The knife has at least two opposite ends, and each opposite end of the first end cutter is provided with a rounded or arc-shaped end corner cutter on the outer side, the first end cutter and the side cutters on both sides Are connected, and the two side cutters are connected with the two end corner cutters, the first end cutter, the two side cutters, and the two second end corner cutters are enclosed to form a cutting inside the material cutter Shaped area, and a unique gap is provided between the two end corner cutters of the cutting knife. The gap is located where the two end corner cutters are not in contact with each other. One end corner cutter is continuous and complete to the other end corner cutter of the two end corner cutters, and the gap is used to prevent an electrode wire from being cut. According to the improved structure of the electrode patch cutting tool described in item 10 of the scope of patent application, the driving shaft is a punching shaft. According to the improved structure of the cutting tool of the electrode patch described in item 11 of the scope of patent application, the tool surface is a horizontal tool surface. According to the improved structure of the cutting tool for the electrode patch described in item 11 of the scope of patent application, the cutting tool is semicircular, semi-elliptical or semi-egg-shaped. According to the improved structure of the electrode patch cutting tool described in item 11 of the scope of patent application The punching shaft and the cutting tool seat are integrated into a punching shaft body, and the punching shaft body is used for setting the cutting knife. According to the improved structure of the cutting tool of the electrode patch described in item 11 of the scope of patent application, the connection between the first end cutting knife and the two side cutting knives is like rounded corners or arced corners. According to the improved structure of the cutting tool of the electrode patch according to the tenth item of the scope of patent application, the cutting tool seat is a roller body for setting the cutting knife. According to the improved structure of the electrode patch cutting tool described in item 10 of the scope of the patent application, the cutting tool cuts an electrode strip, and the electrode strip includes one of the same width and bonding The base material part is coated with a conductive adhesive part, and a release layer is connected under the electrode strip, and the release layer is wider and slightly protrudes from the electrode strip. According to the improved structure of the cutting tool of the electrode patch according to item 17 of the scope of patent application, an electrode lead is inserted and set between the batch of coated substrate part and the conductive adhesive part, and the electrode lead protrudes from the Electrode slitting. According to the improved structure of the electrode patch cutting tool described in item 18 of the scope of patent application, the electrode strip has a slit end edge, and the bottom edges of the two end corner cutters are aligned or slightly protruding from the At the edge of the strip, the edge of the strip is located on the side of the electrode strip on which the electrode leads protrude.

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