TW202315732A - Processing equipment for ensuring point pressing knife firmly contacting and rolling component tape to form indentations with desired depth thereon and thus improving rolling quality - Google Patents

Abstract

A processing equipment comprises a conveying device and a point pressing device. The conveying device is used for conveying a component tape for moving and comprises a first guiding roller. The point pressing device comprises a point presser. The point presser includes a base frame, a sliding frame that can be slidably connected to the base frame, a point pressing knife that can be rotatably pivoted to the sliding frame for rolling the component tape reeled on the first guiding roller, and an adjusting assembly disposed between the base frame and the sliding frame. The adjusting assembly may be operated to adjust the distance between the point pressing knife and the first guiding roller. Thus, the present invention may adjust the distance between the point pressing knife and the first guiding roller through the adjusting assembly according to the thickness of the component tape and the indentation depth to be formed on the component tape, so as to ensure the point pressing knife may firmly contact and roll the component tape for forming indentations thereon.

Description

Processing Equipment

The invention relates to a processing device, in particular to a processing device for processing material strips.

Existing point breaking machine usually sets a material passing roller and a support rod on a support frame, contacts and rolls a material belt moving on the material passing roller through a point breaking knife arranged on the support rod, so as to Multiple breakpoints are extruded on the strip.

Since the distance between the breaking knife at this point and the feeding roller cannot be adjusted, the depth of these breaking points cannot be adjusted and changed correspondingly according to the thickness of the material strip. In addition, the broken knife at this point is also likely to be affected by the assembly tolerance between the aforementioned components, resulting in the inability to reliably contact and roll the material strip. In this way, not only will the depth of the breakpoints pressed on the material tape be affected, but it may even be impossible to press out the breakpoints on the material tape.

It is therefore an object of the present invention to provide a processing plant which overcomes at least one of the disadvantages of the prior art.

Therefore, the processing equipment of the present invention includes a conveying device and a point pressing device.

The conveying device is used for conveying a material belt and includes a first guide roller for winding the material belt. The pressing device includes at least one pressing device adjacent to the first guide roller, the pressing device includes a base frame, a sliding frame slidably connected to the base frame, a rotatably pivoted The sliding frame is used to roll the point press knife of the material tape wound on the first guide roller, and an adjustment assembly is arranged between the base frame and the sliding frame, and the adjustment assembly can be operated to Adjust the distance between the point press knife and the first guide roller.

In some embodiments, the point pressing knife is in the shape of a disc, and the adjustment assembly includes an adjustment bolt screwed on the base frame, and an elastic resisting group arranged between the sliding frame and the adjustment bolt .

In some implementations, the sliding frame is formed with an accommodating groove, and the elastic resisting group includes a propping member accommodated in the accommodating groove for the adjustment bolt to contact or push, and an abutting member accommodated in the accommodating groove. The compression spring in the accommodating groove, the two ends of the compression spring abut against the sliding frame and the abutting piece respectively.

In some embodiments, the point press knife is disc-shaped and includes an outer peripheral surface, and a plurality of blade groups protruding from the outer peripheral surface, and the blade groups are arranged at intervals along the axial direction of the point pressure knife, Each of the blade groups has a plurality of blades arranged in a ring shape at equiangular intervals.

In some implementation aspects, the point pressing device further includes a bearing frame that carries the base frame and is parallel to the first guide roller, and a sliding drive mechanism connected with the bearing frame, and the sliding driving mechanism is used to drive The bearing frame slides in a direction perpendicular to the first guide roller to drive the spot presser to move between a non-point pressing position and a one point pressing position. In the non-point pressing position, the point pressing knife is far away from the first point pressing position. A guide roller and the material belt, when in the point pressing position, the point pressure knife is adjacent to the first guide roller and squeezes the material belt.

In some embodiments, the pressing device includes a plurality of pressing devices that are slidably connected to the carrier and arranged at intervals from each other, and each of the pressing devices also includes a screw connected to the base frame for forcing Close contact with the carrier to lock to the locking bolt of the carrier.

In some implementation aspects, the conveying device further includes a second guide roller located downstream of the first guide roller and used for winding the strip, the second guide roller is formed with at least one annular groove, The processing equipment also includes a cutting device, the cutting device includes at least one cutter, and the cutter includes a cutting knife that partially penetrates into the annular groove for cutting the strip.

In some implementation aspects, the point pressing device includes a plurality of point points arranged at intervals, the second guide roller is formed with a plurality of annular grooves, and the annular grooves are formed along the second guide roller. The cutting device is arranged at intervals in the axial direction, and the cutting device includes a plurality of cutters arranged at intervals and respectively aligned with the pressers, and each of the cutters includes a part that penetrates into the corresponding annular groove for A cutter that cuts through the strip.

In some embodiments, the cutting device further includes a rotating rod parallel to the second guide roller, and a rotating drive mechanism connected with the rotating rod, and the cutters are slidably connected to the rotating rod. The rotary drive mechanism is used to drive the rotating rod to rotate so that each of the cutters rotates between a non-cutting position and a cutting position. In the non-cutting position, the cutting of the cutter The knife moves away from the corresponding annular groove and away from the material strip, and when in the cutting position, the cutter part of the cutter penetrates into the corresponding annular groove and can cut off the material strip.

In some embodiments, the conveying device further includes a discharge roller located upstream of the first guide roller for releasing the material tape, a first take-up roller located downstream of the second guide roller, and a The second take-up roller located downstream of the second guide roller, the first take-up roller and the second take-up roller are used to respectively take up two strips formed after the strip is cut by the cutter.

The present invention has at least the following effects: the point presser can adjust the point press knife and the first guide roller through the adjustment assembly according to the thickness of the material strip and the depth of the indentation to be formed on the material strip Thereby, it is ensured that the spot pressure knife can actually contact and roll the material strip to form the indentation of the desired depth on it, thereby improving the quality of rolling.

Before the present invention is described in detail, it should be noted that in the following description, similar elements are denoted by the same numerals.

Referring to FIG. 1 and FIG. 2 , an embodiment of the processing equipment 200 of the present invention is suitable for processing a strip 1 in the shape of a long strip. The material tape 1 is, for example, an adhesive film made of plastic material and used for packaging. The processing equipment 200 includes a frame 2 , a conveying device 3 , a pressing device 4 , and a cutting device 5 .

The frame 2 includes two side frame bodies 21 , and the side frame bodies 21 are spaced apart along a left-right direction Y. This conveyor 3 comprises a discharge roller 31, a first receiving roller 32, a second receiving roller 33, a first guide roller 34, a second guide roller 35, and two drive motors (Fig. not shown). The discharge roller 31 is rotatably pivotally connected to the side frame bodies 21 and is adjacent to the front end of the frame 2. The discharge roller 31 is wound with the material belt 1 and can discharge the material belt 1 through rotation. . The first receiving roller 32 and the second receiving roller 33 are rotatably pivoted to the side frame bodies 21 and are adjacent to the rear end of the frame 2 and spaced apart along an up-down direction Z. The first receiving roller 32 and the second receiving roller 33 can wind up the material tape 1 by rotating. The first guide roller 34 is rotatably pivoted to the side frame bodies 21 and located downstream of the discharge roller 31 for winding the material tape 1 . The first guide roller 34 has a roller body 341 made of soft material such as silicon rubber or rubber for winding the material tape 1 . The second guide roller 35 is rotatably pivoted to the side frames 21 and is located downstream of the first guide roller 34 and upstream of the first receiving roller 32 and the second receiving roller 33. Two guide rollers 35 are used for winding the material strip 1 . The driving motors are used to drive the first receiving roller 32 and the second receiving roller 33 to rotate respectively, so that the discharging roller 31 can rotate and discharge while the first receiving roller 32 and the second receiving roller 33 can rotate the receiving material, so that the conveying device 3 can transport the material belt 1 to move.

The pressing device 4 includes a supporting group 40 , a supporting frame 41 , a sliding driving mechanism 42 , and a plurality of pressing devices 43 . The supporting group 40 includes two side guide rails 401 respectively disposed inside the side frame bodies 21 , and two side frames 402 respectively disposed inside the side frame bodies 21 . Each of the side guide rails 401 is in the shape of a long rod and its longitudinal direction extends along a front-to-back direction X. The side frames 402 are respectively located in front of the side rails 401 .

The carrier 41 is spaced in front of the first guide roller 34 along the front-rear direction X and includes a sliding bar 411 and a guide rail 412 . The sliding rod 411 is in the shape of a long rod and its length extends along the left-right direction Y and is parallel to the first guide roller 34 . The left and right ends of the sliding rod 411 are respectively slidably connected to the side guide rails 401 . The guide rail 412 is fixedly arranged on the top surface of the sliding rod 411. The guide rail 412 is in the shape of a long rod and its length extends along the left-right direction Y. The guide rail 412 is parallel to the first guide roller 34 and has a length shorter than the sliding rod. 411 length.

Referring to FIG. 2 , FIG. 3 , FIG. 4 and FIG. 5 , the clickers 43 are slidably connected to the guide rail 412 of the carrier 41 and are spaced apart from each other and adjacent to the front end of the first guide roller 34 . Each of the indenters 43 includes a base frame 44 , a sliding frame 45 , an indenter 46 , an adjusting assembly 47 , a locking bolt 48 , and a stopper 49 . The base frame 44 includes a frame body 441 and a cover body 442 . The frame body 441 is formed with a guide groove 443 extending along the front-rear direction X, an upper screw hole 444 extending along the front-rear direction X and communicating with the front end of the guide groove 443, and an upper screw hole 444 extending along the left-right direction Y and spaced apart from the guide groove 443. A sliding slot 445 below the slot 443 , and a lower screw hole 446 extending along the front-rear direction X and communicating with the front end of the sliding slot 445 . The sliding groove 445 is slidably connected to the guide rail 412 , thereby enabling the base frame 44 to slide along the extending direction of the guide rail 412 . The cover body 442 covers the top of the frame body 441 and is locked to the frame body 441 through screw locking. The cover body 442 closes the top of the guide groove 443 and forms a screw hole 447 communicating with the guide groove 443. .

The sliding frame 45 includes a sliding rod 451 and a shaft 452 . The sliding rod 451 is in the shape of a long rod and its longitudinal direction extends along the front-back direction X and is slidably connected to the guide slot 443 of the base frame 44 . The sliding rod 451 is formed with a receiving groove 453 facing backward, two screw holes 454 respectively connected to the left and right sides of the receiving groove 453, a receiving groove 455 facing forward and spaced in front of the receiving groove 453, and an upward facing And communicate with the groove 456 at the front end of the receiving groove 453 . The rear end and upper and lower ends of the receiving groove 453 are open. The accommodating groove 455 has an open front end. The top and rear ends of the groove 456 are open. The sliding rod 451 has a limiting surface 457 located at a front end of the groove 456 . The shaft 452 in this embodiment is an example of a screw, and the shaft 452 is screwed into the screw holes 454 and passed through the receiving groove 453 .

The point pressing knife 46 is in the shape of a disc and is partially housed in the receiving groove 453 and is rotatably pivoted to the shaft 452 of the sliding frame 45 for rolling on the first guide roller 34 The material strip 1 on the roller body 341 . The point pressing knife 46 includes an outer peripheral surface 461 and a plurality of blade sets 462 protruding from the outer peripheral surface 461 . The number of the blade sets 462 in this embodiment is four as an example, and the blade sets 462 are arranged at intervals along the axial direction of the point pressing knife 46 . Each of the blade sets 462 has a plurality of blades 463 arranged in a ring shape at equiangular intervals and arranged around the shaft 452, each of the blades 463 is used to squeeze the material strip 1 conveyed by the conveying device 3 to The strip 1 is dented to form a corresponding indentation 10 (as shown in FIG. 10 ). The cutting edges 463 of each cutting edge set 462 are arranged at intervals from each other in the plurality of indentations 10 extruded on the strip 1 and jointly define a point indentation line 11 (as shown in FIG. 10 ).

The adjusting assembly 47 is disposed between the base frame 44 and the sliding frame 45 and includes an adjusting bolt 471 and an elastic resisting group 472 . The adjusting bolt 471 is screwed to the upper screw hole 444 of the base frame 44 and partly penetrates into the guide groove 443 while the other part protrudes from the front end of the base frame 44 . The adjusting bolt 471 has a contact end 473 located in the guide slot 443 , and a bolt head 474 opposite to the contact end 473 and located in front of the base frame 44 . The elastic resisting group 472 is disposed between the sliding frame 45 and the adjusting bolt 471 and includes a resisting member 475 and a compression spring 476 . The abutting member 475 of this embodiment is a screw as an example, the abutting member 475 is accommodated in the accommodating groove 455 of the sliding rod 451 and is contacted or pushed by the contact end 473 of the adjusting bolt 471 . The compression spring 476 is accommodated in the accommodating groove 455 , and two ends of the compression spring 476 abut against the sliding rod 451 and the resisting member 475 respectively.

By rotating the bolt head 474 to screw the adjusting bolt 471 in or out, the adjusting bolt 471 will move backward or forward along the front-rear direction X to change the position of the contact end 473, so that the sliding frame 45 and The elastic resisting group 472 disposed in the accommodating groove 455 can move backward or forward according to the position change of the contact end 473 . Thereby, the distance along the front-back direction X between the point press knife 46 and the first guide roller 34 can be adjusted.

The accommodating groove 455 formed by the sliding rod 451 is accommodated by the abutting member 475 and the compression spring 476 of the elastic pressing group 472, so that the matching rear edge of the sliding rod 451 and the elastic pressing group 472 can be shortened. The length in the front-back direction X makes the volume of the base frame 44 smaller and lowers the manufacturing cost.

It should be noted that, in another embodiment of this embodiment, the elastic pressing group 472 can also be a single elastic member, such as a compression spring, or made of silicone, rubber, PVC or PU. The elastic column made of material is not limited to the two components disclosed in this embodiment.

The locking bolt 48 is screwed into the lower screw hole 446 of the base frame 44 for pressingly contacting the guide rail 412 of the carrier 41 to lock the base frame 44 on the guide rail 412 . The stopper 49 of this embodiment is a screw as an example, the stopper 49 is screwed into the screw hole 447 of the cover 442 and penetrates into the groove 456 of the sliding rod 451 , the stopper 49 The stopper 49 is used to block the limiting surface 457 of the sliding rod 451 to prevent the sliding rod 451 from disengaging from the guide groove 443 .

2 and 5, the sliding drive mechanism 42 includes two cylinders 421 respectively arranged on the side frames 402, the cylinders 421 are connected to the front end of the sliding rod 411 of the carrier 41 to drive the carrier 41 Sliding along the front-back direction X, the bearing frame 41 drives each of the clickers 43 to move between a non-pressing position (as shown in FIG. 5 ) and a pressing position (as shown in FIG. 8 ). When in the non-point pressing position, the point pressing knife 46 is away from the first guide roller 34 and the material strip 1 . At the point pressing position, the point pressing knife 46 is adjacent to the first guide roller 34 and presses the strip 1 .

Referring to Fig. 2, Fig. 6 and Fig. 7, the second guide roller 35 is formed with a plurality of annular grooves 351, and the annular grooves 351 are arranged at intervals along the axial direction of the second guide roller 35, and each of the The annular groove 351 is formed by radially inwardly recessing the outer peripheral surface of the second guide roller 35 .

The cutting device 5 includes a support group 50 , a rotating rod 51 , a plurality of cutters 52 , and a rotation driving mechanism 53 . The support set 50 includes a first side pivot frame 501 , a second side pivot frame 502 , and a support block 503 . The first side pivot frame 501 is disposed inside one of the side frame bodies 21 . The second side pivot frame 502 and the support block 503 are disposed inside the other side frame body 21 , and the support block 503 is located behind the second side pivot frame 502 . The rotating rod 51 is in the shape of a long rod, and its longitudinal direction extends along the left-right direction Y and is parallel to the second guide roller 35 . The rotating rod 51 includes a supporting rod body 511 and two shaft rod bodies 512 respectively protruding from left and right ends of the supporting rod body 511 . The cross section of the carrying rod body 511 taken along the longitudinal direction perpendicular to the rotating rod 51 is non-circular, and this embodiment takes a square shape as an example. The equiaxed rod body 512 is rotatably pivoted to the first side pivot frame 501 and the second side pivot frame 502 respectively.

The cutters 52 are slidably connected to the carrying rod body 511 of the rotating rod 51 and are spaced apart from each other. The number of the cutters 52 is the same as the number of the presses 43 . Each cutter 52 includes a sliding frame 521 and a cutter 522 . The sliding frame 521 is formed with a sliding groove 523, the shape of the sliding groove 523 matches the cross-sectional shape of the bearing rod body 511, so that the sliding groove 523 can be slidably connected to the bearing rod body 511 without contacting the bearing rod body. Body 511 rotates. The cutter 522 is disposed on one side of the sliding frame 521 , and a part of the cutter 522 can penetrate into the corresponding annular groove 351 . The cutting knife 522 is used to cut off the strip 1 to form a cutting line 12 (as shown in FIG. 10 ) on the strip 1, so that the strip 1 forms two parts separated by the cutting line 12 Belt 13. The strips 13 are respectively wound up by the first receiving roller 32 (as shown in FIG. 1 ) and the second receiving roller 33 (as shown in FIG. 1 ).

The rotation driving mechanism 53 includes a worm wheel 531 , a worm 532 , and a turntable 533 . The worm gear 531 is sleeved on the corresponding shaft body 512 of the rotating rod 51 and adjacent to the second side pivot frame 502 . The worm 532 is rotatably pivoted to the second side pivot frame 502 and the support block 503 and engaged with the worm wheel 531 , and a portion of the worm 532 protrudes from the rear end of the support block 503 . The turntable 533 is disposed at the rear end of the worm 532 for rotation operation. By rotating the turntable 533, the worm 532 drives the worm wheel 531 to rotate. When the worm wheel 531 rotates, it drives the rotating rod 51 to rotate, so that the rotating rod 51 can drive each cutter 52 to a non-cutting position. (as shown in Figure 7) and rotate between a cut-off position (as shown in Figure 9). When in the non-cutting position, the cutter 522 of each cutter 52 moves away from the corresponding annular groove 351 and away from the strip 1 . When in the cutting position, the cutter 522 of each cutter 52 partially penetrates into the corresponding annular groove 351 and can cut the material strip 1 .

The following describes the operation settings before the processing equipment 200 processes the strip 1:

Referring to FIG. 2 and FIG. 5 , firstly, the positions of the indenters 43 on the carrier 41 are respectively adjusted according to the positions of the plurality of indentation lines 11 to be formed on the strip 1 . The way to adjust each of the clickers 43 is to first unscrew the locking bolt 48 to separate from the guide rail 412 . Then, push the clicker 43 to move to a desired position along the guide rail 412 . Afterwards, the locking bolt 48 is screwed in so as to tightly contact the guide rail 412 , so that the clicker 43 can be locked on the guide rail 412 and positioned at a desired position.

Next, according to the thickness of the material strip 1 and the depth of the indentation 10 to be formed on the material strip 1 , the adjustment method of the adjustment assembly 47 of each of the pressers 43 is determined. For example, when it is desired to form the indentation 10 (as shown in FIG. 8 ) with a deeper depth on the material strip 1, the screw head 474 is rotated to screw in the adjusting screw 471, and the adjusting screw 471 will move along the front-rear direction X. Move backward and push the resisting member 475 through the contact end 473 , so that the resisting member 475 pushes the point pressing knife 46 to move backward through the compression spring 476 and the sliding frame 45 . Thereby, when the spot presser 43 is at the non-spotting position, the distance between the spot press knife 46 and the first guide roller 34 along the front-rear direction X is short and close to the material strip 1 .

For example, when it is desired to form the indentation 10 with a shallower depth on the strip 1, the screw head 474 is rotated to unscrew the adjusting screw 471, and the adjusting screw 471 will move forward along the front-rear direction X to make the contact end 473 is separated from the abutting member 475 . Then, push the point-pressing knife 46 forward along the front-back direction X, so that the point-pressing knife 46 drives the sliding frame 45 and the elastic resisting group 472 to move forward. When the resisting member 475 abuts against the contact end 473 of the adjusting bolt 471 , it will be blocked by it, so that the point pressing knife 46 cannot move forward. Thereby, when the spot presser 43 is at the non-spotting position, the distance between the spot press knife 46 and the first guide roller 34 along the front-rear direction X is longer and away from the material strip 1 .

Referring to Fig. 2 and Fig. 8, then, control the actuation of the cylinders 421, the cylinders 421 drive the carrier 41 to slide backward along the front and rear direction X, so that the carrier 41 drives each of the press points 43 from the non-point press The position moves backwards. When a part of the blades 463 of the point press knife 46 contacts the material tape 1 during the backward movement of the point press device 43 , the point press knife 46 will be blocked by the material tape 1 and cannot continue to move. At this time, since the bearing frame 41 is driven by the air cylinders 421 to continue to move backward, the base frame 44 and the adjusting bolt 471 will move backward relative to the sliding frame 45 . Due to the design of the elastic resisting group 472 , the adjusting bolt 471 pushes the resisting member 475 during the backward movement, so that the resisting member 475 presses the compression spring 476 to deform and accumulate restoring elastic force. The deformation of the compression spring 476 can absorb and buffer the pressure generated when the adjusting bolt 471 moves backward, thereby preventing the sliding frame 45 from directly bearing the pressure generated by the adjusting bolt 471 and causing the point pressure knife 46 The situation that the blades 463 of the blades pierce through the strip 1 occurs. Furthermore, by virtue of the return elastic force accumulated by the compression spring 476, a part of the blades 463 of the point pressing knife 46 can apply pressure to press the material tape 1, and the material tape 1 is squeezed by the corresponding blades 463. The pressed point becomes concave and deforms and forms the indentation 10 . When the air cylinders 421 drive each of the indenters 43 to move backward to the indentation position shown in FIG. 8 , the air cylinders 421 stop driving the supporting frame 41 to move backward.

Referring to FIG. 2 and FIG. 7 , the positions of the cutters 52 on the bearing rod body 511 of the rotating rod 51 are respectively adjusted according to the positions of the press points 43 . By the rotary drive mechanism 53 can drive the rotating rod 51 to rotate so that it drives each of the cutters 52 to rotate between the non-cutting position and the cutting position (as shown in Figure 9 ), it is desired to adjust the Before the position of the cutter 52, rotate each of the cutters 52 to the non-cutting position by operating the rotary drive mechanism 53, so that the cutter 522 of each cutter 52 will not be blocked by the second cutter 52. Guide roller 35 blocks. When each of the cutters 52 is at the non-cutting position, the cutters 52 are pushed to move along the carrying rod 511 . When the cutter 52 moves to the point where the cutter 522 is aligned with the center of the point press knife 46 of the corresponding presser 43 along the front-rear direction X, it means that the cutter 52 is adjusted to the position.

Referring to Fig. 2, Fig. 6, Fig. 9 and Fig. 10, rotate the turntable 533 so that the worm 532 drives the worm wheel 531 to rotate, and the worm wheel 531 drives the rotating rod 51 to rotate so that each of the cutters 52 is driven by the non-cutting device. The off position is rotated to the off position shown in FIG. 9 . At this time, the cutter 522 of the cutter 52 partially penetrates into the corresponding annular groove 351 and cuts off the strip 1 . Next, the strip 1 is pulled back for a certain stroke, so that the cutter 522 of each cutter 52 cuts off the strip 1 and forms the cutting line 12 thereon. Afterwards, the belt bodies 13 of the material strip 1 separated by each cutting line 12 are respectively fixedly connected to the first receiving roller 32 (as shown in FIG. 1 ) and the second receiving roller 33 (As shown in FIG. 1 ), the first receiving roller 32 and the second receiving roller 33 can respectively take up the strips 13 .

The operation mode of processing the strip 1 by the processing equipment 200 will be described in detail below:

Referring to Figure 1, Figure 2, Figure 8 and Figure 10, the first receiving roller 32 and the second receiving roller 33 are respectively driven to rotate by the drive motors, so that the first receiving roller 32 and the second receiving roller The take-up rollers 33 can respectively take up the corresponding strips 13 , thereby generating a pulling force that pulls the material strip 1 to move so as to prompt the unwinding roller 31 to rotate and discharge. When the material belt 1 conveyed by the conveying device 3 passes between the first guide roller 34 and the point pressure wheels 46 of the point pressers 43, each of the point pressure wheels 46 will be pressed by the material belt. 1 is driven to rotate around the shaft 452 and roll the strip 1. The blades 463 of the blade groups 462 press the strip 1 sequentially, so that four pressure points 11 spaced apart from each other along the left-right direction Y are simultaneously formed on the strip 1 .

Referring to Fig. 1, Fig. 2, Fig. 9 and Fig. 10, when the material strip 1 conveyed by the conveying device 3 passes between the second guide roller 35 and the cutters 522 of the cutters 52, The cutters 522 cut the material strip 1 and simultaneously form a plurality of cutting lines 12 and a plurality of strips 13 separated by the cutting lines 12 on the material strip 1 . Since the cutting knife 522 of each cutter 52 is aligned with the middle of the point pressing knife 46 of the corresponding pressing device 43 along the front-rear direction X, each cutting line 12 is located at four corresponding points. In the middle of the pressing line 11 , each strip body 13 has two point pressing lines 11 on one side of the corresponding cutting line 12 . The portion of each of the strips 13 formed with the aforementioned two pressure points 11 is a portion for subsequent heat-sealing processing.

Referring to Fig. 1, Fig. 2 and Fig. 11, by the design of the first receiving roller 32 and the second receiving roller 33, every two adjacent belts 13 in the belts 13 can be They are respectively wound up by the first receiving roller 32 and the second receiving roller 33 in a way of staggering one above the other. Thereby, it is possible to prevent every two adjacent strips 13 from overlapping with each other when they are taken up by the same take-up roller.

The processing equipment 200 of the present embodiment is designed in a plurality of the number of the pressers 43, the number of the cutters 52 and the number of the annular grooves 351, so that the material strip can be processed simultaneously. 1 Forming a plurality of pressure points 11, a plurality of cutting lines 12 and a plurality of strips 13 separated by the cutting lines 12, thereby effectively improving the speed and efficiency of processing the strip 1 and enabling Reduce processing costs. However, in other implementation forms of the processing equipment 200 of this embodiment, the number of the pressers 43, the number of the cutters 52 and the number of the annular grooves 351 can also be one each, instead of The quantity disclosed in this embodiment is limited.

To sum up, in the processing equipment 200 of this embodiment, each of the indenters 43 can pass through the adjustment assembly according to the thickness of the material strip 1 and the depth of the indentation 10 to be formed on the material strip 1. 47 to adjust the distance between the point press knife 46 and the first guide roller 34 along the front-rear direction X, thereby ensuring that the point press knife 46 can actually contact and roll the strip 1 to be on it Forming the indentation 10 with a desired depth can improve the quality of rolling. In addition, after the point pressing device 4 of the processing equipment 200 forms the point pressure lines 11 on the material strip 1, the cutting device 5 then forms the cutting lines 12 on the material strip 1, which can effectively improve The speed and efficiency of processing this strip 1, so really can reach the purpose of the present invention.

But what is described above is only an embodiment of the present invention, and should not limit the scope of the present invention. All simple equivalent changes and modifications made according to the patent scope of the present invention and the content of the patent specification are still within the scope of the present invention. Within the scope covered by the patent of the present invention.

1: Tape 10: Indentation 11: point pressure line 12: Cut off the line 13: belt body 200: processing equipment 2: Rack 21: side frame body 122: connecting piece 123: lower board 124: Lower connecting plate 125: opening 3: Conveyor 31: Unwinding roller 32: The first receiving roller 33: Second receiving roller 34: The first guide roller 341: roll body 35: Second guide roller 351: Ring groove 4: Point pressure device 40: Support group 401: side rail 402: side frame 41: Bearing frame 411: sliding rod 412: guide rail 42: Sliding drive mechanism 421: Cylinder 43: Clicker 44:Pedestal 441: frame body 442: cover body 443: guide groove 444: upper screw hole 445: chute 446: Bottom screw hole 447: screw hole 45: sliding frame 451: sliding rod 452: shaft 453: storage tank 454: screw hole 455: storage tank 456: Groove 457: limit surface 46: point pressure knife 461: Peripheral surface 462: blade set 463: blade 47: Adjustment assembly 471: Adjusting bolt 472: Elastic compression group 473: contact end 474: Bolt head 475: Top Arrival 476: compression spring 48:Locking Bolt 49: stop piece 5: Cutting device 50: support group 501: First side pivot frame 502: second side pivot frame 503: support block 51:Turning rod 511: Bearing rod body 512: Shaft body 52: Cutter 521: sliding frame 522: cutter 523: Chute 53: Rotary drive mechanism 531: worm gear 532: worm 533: turntable X: Front and rear direction Y: left and right direction Z: up and down direction

Other features and effects of the present invention will be clearly presented in the implementation manner with reference to the drawings, wherein: Fig. 1 is a schematic side view of an embodiment of the processing equipment of the present invention, illustrating the configuration relationship between a conveying device, a point pressing device, and a cutting device; Fig. 2 is an incomplete plan view of this embodiment; Fig. 3 is a partially enlarged view of the pressing device of this embodiment, illustrating the assembly relationship between a carrier and a pressing device; Fig. 4 is a three-dimensional exploded view of the indenter of this embodiment; Figure 5 is an incomplete side view of this embodiment, illustrating that the clicker is in a non-clicking position; Fig. 6 is an incomplete side view of this embodiment, illustrating the connection relationship between a rotating rod and a rotating drive mechanism; Figure 7 is a fragmentary side view of the embodiment, illustrating a cutter in a non-cutting position; Fig. 8 is an incomplete side view of the embodiment, illustrating that the clicker is in a one-click position; Figure 9 is a fragmentary side view of the embodiment, illustrating the cutter in a cutting position; Figure 10 is an incomplete top view of this embodiment; and Figure 11 is a fragmentary rear view of this embodiment.

1: Tape

13: belt body

200: processing equipment

3: Conveyor

31: Unwinding roller

32: The first receiving roller

33: Second receiving roller

34: The first guide roller

341: roll body

35: Second guide roller

4: Point pressure device

41: Bearing frame

411: sliding rod

412: guide rail

43: Clicker

46: point pressure knife

5: Cutting device

511: Bearing rod body

52: Cutter

521: sliding frame

X: Front and rear directions

Z: up and down direction

Claims (10)

A processing device comprising: a transport device for transporting a web and including a first guide roller for winding the web; and A pressing device, including at least one pressing device adjacent to the first guide roller, the pressing device includes a base frame, a sliding frame slidably connected to the base frame, a rotatably pivoted to the The sliding frame is used to roll the point press knife of the material tape wound on the first guide roller, and an adjustment assembly is arranged between the base frame and the sliding frame, and the adjustment assembly can be operated to Adjust the distance between the point press knife and the first guide roller. The processing equipment as described in claim 1, wherein the point press knife is disc-shaped, the adjustment assembly includes an adjustment bolt screwed on the base frame, and a set between the sliding frame and the adjustment bolt elastic compression group. The processing equipment as claimed in claim 2, wherein, the sliding frame is formed with an accommodation groove, and the elastic resisting group includes a propping member accommodated in the accommodation groove for the adjustment bolt to contact or push, and A compression spring accommodated in the accommodating groove, and two ends of the compression spring abut against the sliding frame and the abutting member respectively. The processing equipment as claimed in claim 1, wherein the point press knife is disc-shaped and includes an outer peripheral surface, and a plurality of blade groups protruding from the outer peripheral surface, and the blade groups are along the axis of the point pressure knife Arranged at intervals, each of the blade groups has a plurality of blades arranged at intervals at equal angles to form a ring shape. The processing equipment as claimed in claim 1, wherein the point pressing device further comprises a carrier carrying the base frame and parallel to the first guide roller, and a sliding drive mechanism connected with the carrier, the sliding The driving mechanism is used to drive the bearing frame to slide along the direction perpendicular to the first guide roller, so as to drive the point press to move between a non-point pressing position and a point pressing position. In the non-point pressing position, the point The press knife is far away from the first guide roller and the material belt, and when in the point pressing position, the point press knife is adjacent to the first guide roller and squeezes the material belt. The processing equipment as claimed in claim 5, wherein the pressing device includes a plurality of pressing devices that are slidably connected to the carrier and arranged at intervals from each other, each of the pressing devices also includes a screw connected to the The base frame is used to tightly contact the carrier frame to be locked to the locking bolt of the carrier frame. The processing equipment according to any one of claims 1 to 5, wherein the conveying device further comprises a second guide roller located downstream of the first guide roller and used for winding the strip, the second The guide roller is formed with at least one annular groove, and the processing equipment also includes a cutting device, the cutting device includes at least one cutter, and the cutter includes a part that penetrates into the annular groove to cut off the material. with cutter. The processing equipment as claimed in item 7, wherein the pressing device includes a plurality of pressing devices arranged at intervals, the second guide roller is formed with a plurality of annular grooves, and the annular grooves are formed along the first The two guide rollers are arranged at intervals in the axial direction, and the cutting device includes a plurality of cutters arranged at intervals and respectively aligned with the pressers, each of which includes a part that penetrates into the corresponding ring The cutting knife used to cut the strip in the groove. The processing equipment as claimed in claim 8, wherein the cutting device further comprises a rotating rod parallel to the second guide roller, and a rotary driving mechanism connected with the rotating rod, and the cutters can slide ground connected to the rotating rod, the rotating drive mechanism is used to drive the rotating rod to rotate to drive each cutter to rotate between a non-cutting position and a cutting position, and in the non-cutting position, the cutting The cutting knife of the cutter moves away from the corresponding annular groove and away from the strip, and at the cutting position, the cutting knife part of the cutter penetrates into the corresponding annular groove and can cut off The tape. The processing equipment as claimed in item 7, wherein the conveying device further includes a discharge roller located upstream of the first guide roller for releasing the material belt, a first take-up roller located downstream of the second guide roller material roller, and a second material receiving roller located downstream of the second guide roller, the first material receiving roller and the second material receiving roller are used to respectively take up the material tape formed after being cut by the cutter Two straps.

Images