TW202335949A - Material docking and double-sided adhesive structure for horizontal lying non-stop winding equipment - Google Patents

Abstract

A material docking and double-sided adhesive structure for horizontal lying non-stop winding equipment, which includes a base having two spaced walls, a first material connection module having a first roll wheel seat pivoted to the walls, a first roll wheel pivoted to the first roll wheel seat and a first vacuum feeding plate fixed to the first roll wheel seat, a first track having a first fixing track fixed to the base and a first slide rail fixed to the first fixing track, and a first adsorption wheel fixed to the first slide rail and has a plurality of first adsorption holes, thereby, by pulling the first adsorption wheel, the operator can set adhesive tape on the first adsorption wheel to achieve the effect of double-sided adhesive tape on the old and new rolls.

Description

Material docking and double-sided adhesive structure of horizontal non-stop unwinding equipment

The invention relates to the technical field of unwinding machines, in particular to a material docking and double-sided adhesion structure of a horizontally lying non-stop unwinding equipment.

Coiled materials are often used in processing in various industrial fields. When the coiled materials are used up, they need to be replaced. Generally, the new coiled materials are installed on the unwinding equipment, and the head end of the new coiled materials is connected to the tail end of the old coiled materials. end connection, so that the new coil material can be connected to the old coil material to continue the coil feeding process. There are two ways to connect the new roll material and the old roll material, one of which is bridging and the other is butt joint. Regardless of bridging or butt jointing, the connection between the new roll material and the old roll material is mainly through manual adhesive tape. , the tape is usually bonded between the new roll material and the old roll material. Take the processing method of material docking as an example. According to the subsequent processing requirements of the coil material, there are three ways to adhere tape to the material docking. One of them is to adhere to the upper surface between the new coil material and the old coil material, and the other is to adhere to the new coil material. The lower surface between the coil material and the old coil material, and the last one is the upper surface and lower surface bonded between the new coil material and the old coil material.

At present, the more common unwinding equipment mainly includes vertical and horizontal types. Due to the limitations of the structure of the horizontal unwinding equipment, the operator can only bond the new roll material and the old roll material. On one side, it is impossible to bond both sides. Therefore, if both sides of the new roll and the old roll need to be taped, only the vertical unwinding equipment can be used. The structure of the vertical unwinding equipment is to fix the new roll and the old roll horizontally close to the ground. , resulting in a longer lateral length of the vertical unwinding equipment, and there are still many processing plants that are unable to use vertical unwinding equipment due to site constraints. In view of this, it is necessary to provide a technical means to solve the problem that the horizontal unwinding equipment cannot allow the new roll material and the old roll material to be bonded with adhesive tape on both sides.

The purpose of the present invention is to solve the problem that the structure of the horizontal unwinding equipment does not allow the operator to adhere tape to both sides of the new roll material and the old roll material.

In order to achieve the aforementioned objectives, the present invention provides a material docking and double-sided adhesion structure for a horizontally lying non-stop unwinding equipment, including:

A body with two separated walls;

A first material receiving module has a first reel seat pivoted to the two seat walls, a first reel seat pivotally connected to the first reel seat, and a first reel fixed to the first reel seat. A first vacuum material receiving plate on the reel seat;

A second material receiving module has a second reel seat pivoted to the two seat walls, a second reel seat pivotally connected to the second reel seat, and a second reel fixed to the second reel seat. a second vacuum splicing plate on the reel seat;

A first track has a first fixed rail fixed on the base body, and a first slide rail slidably installed on the first fixed rail;

A second track has a second fixed rail fixed on the base body, and a second slide rail slidably installed on the second fixed rail;

A first adsorption wheel is fixed on the first slide rail, and the first adsorption wheel has a plurality of first adsorption holes;

A second adsorption wheel is fixed on the second slide rail, and the second adsorption wheel has a plurality of second adsorption holes.

In a preferred embodiment, the first material joining module has two first pressure cylinders fixed on the two base walls. The two first pressure cylinders are connected to the first roll material through a first telescopic rod respectively. Wheel seat, the second material receiving module has two second pressure cylinders fixed on the two seat walls, and the two second pressure cylinders are driven and connected to the second coiling wheel seat through a second telescopic rod.

In a preferred embodiment, each first adsorption hole is vacuumed by a vacuum compressor and connected to each first adsorption hole, so that each first adsorption hole generates suction force, and each second adsorption hole is formed by a vacuum compressor. Vacuum and connect each second adsorption hole, so that each second adsorption hole generates suction.

In a preferred embodiment, the direction in which one of the seat walls extends to the other seat wall is a transverse direction, the first rail is installed on the base body along the transverse direction, and the second rail is installed on the base body along the transverse direction. It is installed on the base body along the transverse direction.

In a preferred embodiment, there are two fixed bolt groups provided on one of the seat walls. The two fixed bolt groups respectively have a bolt seat fixed on the seat wall, and are provided on the bolt seat. A bolt head that can be close to or away from the first slide rail, and the first adsorption wheel has a first holding part, and a bolt hole is provided on the first holding part, and the bolt hole is used for allowing the bolt head to bolt solid.

In a preferred embodiment, the first adsorption wheel has a first end face facing the first holding part, an end hole is penetrated on the first end face, and the first holding part has a first end face facing the end hole. And a directional bolt that can be close to or away from the end hole.

In a preferred embodiment, the first adsorption wheel has an adsorption wheel pressure cylinder fixed on the first slide rail, and a connecting plate drivingly connected to the adsorption wheel pressure cylinder, and the first adsorption wheel is fixed on the connection board.

In a preferred embodiment, a pressure plate is provided between the first material joining module and the second material joining module, and the pressure plate is located between the first vacuum material joining plate and the second vacuum material joining plate. .

Thereby, by being able to pull out the first adsorption wheel or the second adsorption wheel, the operator can set the tape on the first adsorption wheel or the second adsorption wheel and complete the double-sided bonding effect.

Please refer to Figures 1 to 4. The present invention is a material docking and double-sided adhesion structure for horizontal non-stop unwinding and unwinding equipment. It mainly has a base body 10, a first material receiving module 20, and a second material receiving module 30. , a first track 40, a second track 50, a first adsorption wheel 60 and a second adsorption wheel 70, wherein:

The base body 10 has two spaced base walls 11; in this embodiment, the direction in which one of the base walls 11 extends to the other base wall 11 is a transverse direction X.

The first material receiving module 20 has a first reel seat 21 pivotally connected to the two seat walls 11, a first reel 22 pivotally connected to the first reel seat 21, and a fixed A first vacuum splicing plate 23 on the first reel seat 21; in this embodiment, the first splicing module 20 has two first pressure cylinders 24 fixed on the two seat walls 11 , the two first pressure cylinders 24 are respectively driven and connected to the first reel seat 21 through a first telescopic rod 241, whereby the first reel seat 21 can be driven to flip through the two first pressure cylinders 24.

The second material receiving module 30 has a second reel seat 31 pivotally connected to the two seat walls 11, a second reel 32 pivotally connected to the second reel seat 31, and a fixed A second vacuum material receiving plate 33 is provided on the second reel seat 31; in this embodiment, the second material receiving module 30 has two second pressure cylinders 34 fixed on the two seat walls 11. , the two second pressure cylinders 34 are respectively driven and connected to the second reel seat 31 through a second telescopic rod 341, whereby the second reel seat 31 can be driven to flip through the two second pressure cylinders 34.

The first track 40 has a first fixed rail 41 fixed on the base 10 and a first slide rail 42 sliding on the first fixed rail 41; in this embodiment, the first fixed rail 41 is The rail 41 is installed on the base 10 along the transverse direction X, whereby the first slide rail 42 is assembled on the first fixed rail 41 so that the first slide rail 42 slides along the transverse direction X. shift.

The second rail 50 has a second fixed rail 51 fixed on the base 10 and a second slide rail 52 sliding on the second fixed rail 51; in this embodiment, the second fixed rail 51 is The rail 51 is installed on the base 10 along the transverse direction X, whereby the second slide rail 52 is assembled on the second fixed rail 51 so that the second slide rail 52 slides along the transverse direction X. shift.

The first adsorption wheel 60 is fixed on the first slide rail 42; in this embodiment, the first adsorption wheel 60 is provided with a plurality of first adsorption holes 61, and a vacuum compressor is used to create a vacuum and communicate with each of the first adsorption holes 61. The first adsorption holes 61 cause each first adsorption hole 61 to generate a suction force. The structure of the aforementioned vacuum compressor to create a vacuum is a conventional technical feature, so it will not be described again here.

The second adsorption wheel 70 is fixed on the second slide rail 52; in this embodiment, the second adsorption wheel 70 is provided with a plurality of second adsorption holes 71, and a vacuum compressor is used to create a vacuum and communicate with each of the second adsorption holes 71. The second adsorption holes 71 cause each second adsorption hole 71 to generate suction force. The structure of the aforementioned vacuum compressor to create a vacuum is a conventional technical feature, so it will not be described again here.

Please refer to Figure 4. There are also two fixed bolt groups 80 provided on one of the seat walls 11. The two fixed bolt groups 80 respectively have a bolt seat 81 fixed on the seat wall 11, and a bolt seat 81 provided on the seat wall 11. 81 and can be close to or away from the first slide rail 42, and the first adsorption wheel 60 has a first holding part 62, the first holding part 62 is provided with a bolt hole 621, when The first adsorption wheel 60 slides through the first slide rail 42 and passes the fixing bolt group 80 , and the bolt head 82 is inserted into the bolt hole 621 to fix the first adsorption wheel 60 and prevent the first adsorption wheel 60 from Slide freely along the transverse direction X. As for the aforementioned two fixing bolt groups 80, one of the fixed bolt groups 80 is used to fix the first adsorption wheel 60, and the other fixed bolt group 80 is used to fix the second adsorption wheel 70. Since the two fixed bolt groups 80 have the same structure, and the two fixing bolt groups 80 have the same matching relationship with the first adsorption wheel 60 and the second adsorption wheel 70. Therefore, the matching relationship between the fixing bolt group 80 and the second adsorption wheel 70 will not be described again. .

Please refer to FIG. 5 , the first adsorption wheel 60 has a first end surface 63 facing the first holding part 62 , the first end surface 63 is provided with an end hole 64 , and the first holding part 62 has a first end surface 63 facing the first holding part 62 . The end hole 64 has a directional bolt 622 that can be close to or away from the end hole 64. When the first adsorption wheel 60 is rotated to allow the end hole 64 to pass through the directional bolt 622, the directional bolt 622 will be inserted into the end hole 64. In order to fix the steering of the first adsorption wheel 60, in particular, the first directional bolt 622 can be adjusted according to the position where the first adsorption wheel 60 needs to stop turning, thereby allowing the first adsorption wheel 60 to rotate in a specific direction. After the first adsorption wheel 60 is angularly positioned and driven to rotate, the first adsorption wheel 60 can naturally break away from the first directional bolt 622 .

Referring to Figure 2, the first adsorption wheel 60 has an adsorption wheel pressure cylinder 65 fixed on the second slide rail 52, and a connecting plate 66 drivingly connected to the adsorption wheel pressure cylinder 65. The first adsorption wheel 60 is fixed on the connecting plate 66, whereby, through the expansion and contraction of the adsorption wheel cylinder 65, the connecting plate 66 can drive the first adsorption wheel 60 closer to or away from the second adsorption wheel 70, thereby allowing the adsorption wheel 60 to be fixed on the second adsorption wheel 70. The adhesive tape on the first adsorption wheel 60 is adhered to the roll material, and the first adsorption wheel 60 and the second adsorption wheel 70 press against each other to closely adhere to the tape.

Please refer to Figure 3. A pressure plate 13 is provided between the first material receiving module 20 and the second material receiving module 30. The pressure plate 13 is located between the first vacuum material joining plate 23 and the second vacuum material joining plate. 33, whereby when the first vacuum splicing plate 23 and the second vacuum splicing plate 33 are close to each other and clamp the pressure plate 13, the rolled material will be located between the pressing plate 13 and the first vacuum splicing plate. 23, or the roll material is located between the pressing plate 13 and the second vacuum splicing plate 33 to prevent the roll material from being rolled up and difficult to be cut when cutting the roll material.

The above is the structural configuration and connection relationship of the present invention in a preferred embodiment. The usage of the present invention and the effects it can produce are as follows:

Please refer to Figure 6, which shows an old roll material A1 assembled on the second material collecting module 30 and bypassing the second material collecting wheel 32 to pass between the two seat walls 11 of the base body 10. And the old roll material A1 is about to be used up. Referring to FIG. 7 , the first material receiving module 20 drives the two first pressure cylinders 24 to pivot the first material receiving module 20 so that the first vacuum material receiving plate 23 faces the operator, and The non-adhesive side of a tape B is adsorbed on the first vacuum splicing plate 23 so that the adhesive side faces the operator. Please refer to Figure 8. The operator pulls out a new roll A2 and glues half of the tape B, so that half of the tape B is exposed toward the operator, and the new roll A2 is bonded to the tape B and is simultaneously spliced by the first vacuum. The plate 23 is adsorbed and fixed on the first vacuum material receiving plate 23 . Please refer to Figure 9. By operating the two first pressure cylinders 24, the first material receiving module 20 is driven to pivot back to the position, so that the first vacuum material receiving plate 23 and the second vacuum material receiving plate 33 correspond to each other. , and the unattached and sticky end of the tape B adhering to the new roll material A2 faces the old roll material A1, and the pressing plate 13 presses against the new roll material A2.

Referring to 10, the operator pulls away from the plug head 82 so that the first adsorption wheel 60 is not restricted by the plug head 82, and pulls out the first adsorption wheel 60 to allow the first adsorption wheel 60 to pass through the first adsorption wheel 60. A slide rail 42 slides on the first fixed rail 41 along the transverse direction On the first adsorption hole 61, the sticky surface of the tape B faces the operator, and the operator rotates the first adsorption wheel 60 so that the orientation bolt 622 is inserted into the end hole 64 to fix the first adsorption wheel. 60's turn. Referring to FIG. 11 , the operator pushes the first adsorption wheel 60 back into the base 10 and inserts the bolt head 82 into the bolt hole 621 to fix the first adsorption wheel 60 and prevent the first adsorption wheel 60 from slipping. Take out the base body 10.

Referring to FIG. 12 , the second vacuum splicing plate 33 moves toward the pressing plate 13 so that the pressing plate 13 is tightly pressed against the new roll material A2. Please refer to Figure 13. The cutter cuts the old roll material A1, and allows the old roll material A1 to stick to the tape B. The old roll material A1 and the new roll material A2 are connected, and one side is fixed with the tape.

Please refer to Figure 14. The adsorption wheel pressure cylinder 65 expands and contracts to allow the connecting plate 66 to drive the second adsorption wheel 70 close to the first adsorption wheel 60, thereby allowing the tape B fixed on the second adsorption wheel 70 to adhere to the old adsorption wheel. between the roll material A1 and the new roll material A2, thereby achieving the effect of sticking the new roll material A2 and the old roll material A1 on both sides. It is worth mentioning that although the position of the first adsorption wheel 60 is restricted by the directional bolt 622, when the first adsorption wheel 60 rotates, the directional bolt 622 will retract to break away from the end hole 64, thereby allowing the first adsorption wheel 60 to rotate. The first adsorption wheel 60 can rotate normally.

Thereby, by pulling out the first adsorption wheel 60 or the second adsorption wheel 70, the operator can set the tape B on the first adsorption wheel 60 or the second adsorption wheel 70, so as to achieve the purpose of attaching the tape B to the old roll A1. The effect of bonding tape B to both sides of new roll A2.

10: base body 11: Seat wall 13: Pressure plate 20: The first material receiving module 21:First roll material wheel seat 22:First roll material wheel 23: The first vacuum splicing plate 24: First pressure cylinder 241:The first telescopic rod 30: Second material receiving module 31:Second roll material wheel seat 32:Second roll material wheel 33: Second vacuum splicing plate 34:Second pressure cylinder 341:Second telescopic rod 40: First track 41: First Orbit 42:First slide rail 50:Second track 51: Second orbit determination 52:Second slide rail 60: First adsorption wheel 61: First adsorption hole 62: First gripping part 621: Bolt hole 622: Positioning bolt 63: First end face 64:Port hole 65: Adsorption wheel pressure cylinder 66:Connection board 70: Second adsorption wheel 71: Second adsorption hole 80: Fixed bolt group 81: Bolt seat 82: Bolt head X: horizontal direction A1:Old roll material A2: New roll material B:Tape

Figure 1 is a perspective view of the present invention in a preferred embodiment; Figure 2 is an exploded view of the present invention in a preferred embodiment; Figure 3 is a cross-sectional view based on line 3-3 in Figure 1; Figure 4 is a cross-sectional view based on line 4-4 in Figure 1; Figure 5 is a partial enlarged cross-sectional view based on the mark 5 in Figure 2; Figure 6 is a schematic three-dimensional view of the old roll material that is about to be used up in a preferred embodiment of the present invention; Figure 7 is a perspective view of the first material receiving module in a preferred embodiment of the present invention; Figure 8 is a perspective view of the new roll material being adsorbed on the first splicing module and the tape being adhered in a preferred embodiment of the present invention; Figure 9 is an enlarged cross-sectional view of the first splicing module adsorbing new roll material and returning it to its position in a preferred embodiment of the present invention; Figure 10 is a perspective view of the first adsorption wheel being pulled out and adsorbing the tape in a preferred embodiment of the present invention; Figure 11 is a three-dimensional cross-sectional view of the first adsorption wheel in position in a preferred embodiment of the present invention; Figure 12 is an enlarged cross-sectional view of a new roll material pressed through a pressing plate in a preferred embodiment of the present invention; Figure 13 is a partial enlarged cross-sectional view of a cutter cutting the old roll material and pressing the old roll material against the adhesive tape in a preferred embodiment of the present invention; Figure 14 is a side view of the first adsorption wheel pressing the new roll material and the old roll material and bonding the tape between the new roll material and the old roll material in a preferred embodiment of the present invention.

10: base body

11: Seat wall

20: The first material receiving module

21:First roll material wheel seat

22:First roll material wheel

24: First pressure cylinder

241:The first telescopic rod

30: Second material receiving module

31:Second roll material wheel seat

32:Second roll material wheel

34:Second pressure cylinder

341:Second telescopic rod

40: First track

50:Second track

60: First adsorption wheel

61: First adsorption hole

62: First gripping part

70: Second adsorption wheel

80: Fixed bolt group

X: horizontal direction

Claims (8)

A material docking and double-sided adhesive structure for horizontal non-stop unwinding equipment, including: A body with two separated walls; A first material receiving module has a first reel seat pivoted to the two seat walls, a first reel seat pivotally connected to the first reel seat, and a first reel fixed to the first reel seat. A first vacuum material receiving plate on the reel seat; A second material receiving module has a second reel seat pivoted to the two seat walls, a second reel seat pivotally connected to the second reel seat, and a second reel fixed to the second reel seat. a second vacuum splicing plate on the reel seat; A first track has a first fixed rail fixed on the base body, and a first slide rail slidably installed on the first fixed rail; A second track has a second fixed rail fixed on the base body, and a second slide rail slidably installed on the second fixed rail; A first adsorption wheel is fixed on the first slide rail, and the first adsorption wheel has a plurality of first adsorption holes; A second adsorption wheel is fixed on the second slide rail, and the second adsorption wheel has a plurality of second adsorption holes. The material docking and double-sided adhesion structure of the horizontal non-stop unwinding equipment as described in claim 1, wherein the first material joining module has two first pressure cylinders fixed on the two seat walls, and the second A press cylinder is connected to the first reel seat through a first telescopic rod. The second material receiving module has two second press cylinders fixed on the walls of the two seats. The two second press cylinders are respectively connected through a first telescopic rod. A second telescopic rod is connected to the second reel seat. The material docking and double-sided adhesion structure of the horizontal non-stop unwinding equipment as described in claim 1, wherein each first adsorption hole is created by a vacuum compressor and connected to each first adsorption hole, so that each first adsorption hole is One adsorption hole generates suction, and each second adsorption hole is vacuumed by a vacuum compressor and connected to each second adsorption hole, so that each second adsorption hole generates suction. The material docking and double-sided adhesive structure of the horizontal non-stop unwinding and unwinding equipment as described in claim 1, wherein the direction in which one of the seat walls extends to the other of the seat walls is a transverse direction, and the first rail is along The second fixed rail is installed on the base body along the transverse direction, and the second fixed rail is installed on the base body along the transverse direction. The material docking and double-sided adhesive structure of the horizontally lying non-stop unwinding and unwinding equipment as described in claim 1, wherein there are also two fixing bolt groups arranged on one of the seat walls, and the two fixing bolt groups respectively have two fixed bolt groups. A bolt seat on the seat wall, and a bolt head provided on the bolt seat and capable of being close to or away from the first slide rail, and the first adsorption wheel has a first holding portion, and the first holding portion The bottom is provided with a bolt hole for fastening the bolt head. The material docking and double-sided adhesive structure of the horizontal non-stop unwinding equipment as described in claim 5, wherein the first adsorption wheel has a first end face facing the first holding part, and the first end face passes through An end hole is provided, and the first holding portion has a directional bolt facing the end hole and capable of being close to or away from the end hole. The material docking double-sided adhesive structure of the horizontal non-stop unwinding equipment as described in claim 1, wherein the first adsorption wheel has an adsorption wheel pressure cylinder fixed on the first slide rail, and is connected to the adsorption wheel. The wheel pressure cylinder drives a connected connecting plate, and the first adsorption wheel is fixed on the connecting plate. The material docking and double-sided adhesive structure of the horizontal non-stop unwinding and unwinding equipment as described in claim 1, wherein a pressure plate is provided between the first material joining module and the second material joining module, and the pressure plate is located between the first vacuum splicing plate and the second vacuum splicing plate.

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