Carrier tape manufacturing apparatus

Abstract

The application discloses a carrier tape manufacturing device and relates to the technical field of carrier tape manufacturing. The carrier tape manufacturing device comprises a workbench, both sides of the workbench are respectively provided with unwinding devices and winding devices, the workbench is sequentially provided with a hot pressing device, a stamping device and a punching device from the unwinding device to the winding device, the hot pressing device is used for heating a position to be stamped on a belt, the stamping device is used for stamping an outlet bag on the belt, and the punching device is used for opening a positioning hole on the belt; the stamping device comprises a mounting frame arranged on the workbench, a jacking piece arranged on the mounting frame, a connecting frame arranged on the jacking piece, and a self-assembly die mechanism arranged on the connecting frame, the self-assembly die mechanism is configured to self-assemble different sizes of dies according to the size of an accommodation object; the mounting frame is further provided with a stamping piece, and the stamping piece is used for pressing the belt on the self-assembly die mechanism so as to stamp the outlet bag on the belt. The application can conveniently form outlet bags with different sizes on the belt.

Description

Technical Field

[0001] This application relates to the technical field of carrier tape manufacturing, and in particular to a carrier tape manufacturing apparatus. Background Technology

[0002] Carrier tape is a strip-shaped product used in the electronic packaging industry. It has a specific thickness and features evenly distributed holes (also called pockets) along its length for holding electronic components and positioning holes for indexing. Carrier tape is mainly used in the electronic component mounting industry. Together with cover tape, it can hold and store electronic components such as resistors, capacitors, transistors, and diodes in the pockets of the carrier tape, protecting them from contamination and damage during transportation. Based on their molding characteristics, carrier tape can be divided into embossed carrier tape and stamped carrier tape. Embossed carrier tape is made by locally stretching the carrier tape material through mold pressing or vacuum forming to create pockets with concave shapes. This type of carrier tape can be molded into pockets of different sizes to accommodate the dimensions of the electronic components it contains.

[0003] A carrier tape manufacturing device is currently disclosed, which includes an embossing device and a punching device arranged in sequence. The tape is conveyed through the embossing device and the punching device in sequence to complete the embossing and punching to obtain the finished product. The embossing device specifically includes an embossing device and a mold located below the embossing device. The embossing device is driven to press the tape onto the mold to form the tape. Typically, the size of the mold is the size of the pocket on the tape.

[0004] Different sizes of pockets need to be molded for different specifications or different storage objects. The existing molds are all pre-made molds. When the size of the pocket needs to be changed, the installed mold can only be disassembled as a whole for replacement. Replacement is inconvenient and requires the mold to be remade, which is time-consuming and labor-intensive. Summary of the Invention

[0005] To facilitate the forming of pockets of different sizes on the strap, this application provides a carrier strap manufacturing apparatus.

[0006] The carrier tape manufacturing equipment provided in this application adopts the following technical solution: A carrier tape manufacturing device includes a worktable. On both sides of the worktable are an unwinding device for unwinding a tape and a winding device for winding a tape. From the unwinding device to the winding device, a hot pressing device, an imprinting device, and a punching device are arranged sequentially on the worktable. The hot pressing device is used to heat the position on the tape to be imprinted. The imprinting device is used to imprint pockets on the tape. The punching device is used to open positioning holes on the tape. The embossing device includes a mounting frame on a workbench, a lifting component on the mounting frame, a connecting frame on the lifting component, and a self-assembling mold mechanism on the connecting frame. The self-assembling mold mechanism is configured to automatically assemble molds of different sizes according to the size of the object being stored. The mounting frame also includes an embossing component, which is used to press the strap onto the self-assembling mold mechanism to emboss a pocket on the strap.

[0007] By adopting the above technical solution, the unwinding device can release the carrier tape and the winding device can rewind it. During the conveying of the carrier tape, the hot pressing device can heat the position on the tape to be imprinted, the imprinting device can imprint pockets on the tape, and the punching device can open positioning holes on the tape. Specifically, in the hot pressing action, the self-assembly mold mechanism can assemble molds of different sizes according to the objects to be stored. Then, by driving the imprinting component, the tape can be pressed onto the self-assembly mold mechanism to imprint pockets of different sizes on the tape. Afterwards, the lifting component is driven to move the self-assembly mold mechanism to ensure that the tape can continue to be conveyed.

[0008] Preferably, the self-assembly mold mechanism includes a support member disposed on a connecting frame, the support member having multiple receiving holes through it, each receiving hole having a mold sub-component inserted through it, the mold sub-component being slidably connected to the receiving hole, each mold sub-component being supported by the support member, and multiple mold sub-components being able to be combined to form molds of different sizes. The support component is also provided with a clamping mechanism, which is used to clamp the mold sub-components.

[0009] By adopting the above technical solution, firstly, it is ensured that the clamping mechanism does not clamp the mold sub-parts. Then, by adjusting the position of the mold sub-parts, multiple mold sub-parts can be combined to form molds of different sizes. After that, the clamping mechanism is driven to clamp the mold sub-parts.

[0010] Preferably, the top of each of the mold sub-components is an embossing surface, and under normal conditions, multiple embossing surfaces are in the same plane; a self-assembly plane is formed between the output end of the embossing component and the embossing surface, and each of the mold sub-components is configured to be able to move until the embossing surface reaches the self-assembly plane to participate in the embossing pattern combination.

[0011] By adopting the above technical solution, the mold sub-components can be moved so that the embossing surface reaches the self-assembly plane. Therefore, by moving the mold sub-components in different positions, different embossing patterns can be combined in the self-assembly plane.

[0012] Preferably, four of the imprinting sub-surfaces are combined to form an imprinting master surface, and there are multiple imprinting master surfaces, which are evenly distributed horizontally and vertically; the imprinting sub-surfaces are triangular, and the imprinting master surface is square.

[0013] By adopting the above technical solution, it is possible not only to combine embossed patterns of different sizes in the self-assembly plane, but also to combine embossed patterns of various shapes in the self-assembly plane, such as triangles, parallelograms, trapezoids, and rectangles.

[0014] Preferably, the bottom end of each of the mold sub-components is an adaptive sub-surface. Under normal conditions, multiple adaptive sub-surfaces form an adaptive surface in the same plane.

[0015] By adopting the above technical solution, pressing the object to be stored onto the adaptive surface will cause the adaptive sub-surface pressed by the stored object to move. The movement of the adaptive sub-surface pressed by the object will cause the corresponding mold sub-part to move. At this time, the smallest imprint pattern that can encapsulate the object to be stored can be adaptively formed in the self-assembly plane.

[0016] Preferably, the connecting frame is further provided with a pusher, and the pusher is provided with a push plate, which is located below the mold sub-component.

[0017] By adopting the above technical solution, the object to be stored is placed above the push plate, and the pusher is driven to press the object to be stored onto multiple mold sub-parts to obtain the smallest imprint pattern.

[0018] Preferably, the clamping mechanism includes a hydraulic expansion member, and each of the receiving holes has a receiving groove on its inner wall. The hydraulic expansion member is disposed on the inner wall of the receiving groove and is used to clamp the mold sub-parts. The support member has a liquid flow channel, which is connected to the interior of each hydraulic expansion member. The liquid flow channel extends to the outer wall of the support member and forms a liquid inlet.

[0019] By adopting the above technical solution, oil can be supplied to the inlet through an external hydraulic workstation, which will cause each hydraulic expansion component to expand and clamp each mold sub-component.

[0020] Preferably, the hot pressing device includes a frame mounted on a workbench, a first lifting member on the frame, a first mounting member on the first lifting member, and a plurality of first hot pressing members on the first mounting member; the frame also includes a second lifting member, a second mounting member on the second lifting member, and a corresponding number of second hot pressing members on the second mounting member; each first hot pressing member is opposite to a corresponding second hot pressing member.

[0021] By adopting the above technical solution, when the carrier belt reaches between the first hot pressing component and the second hot pressing component, the first lifting component and the second lifting component are driven to move the first hot pressing component and the second hot pressing component closer to each other to perform hot pressing on the carrier belt.

[0022] Preferably, the punching device includes a bracket mounted on a workbench, on which a punching component is mounted; the bracket also includes a base plate, on which a discharge hole is provided in the direction of the output end of the punching component, and a collection hopper is provided on the side of the bracket away from the discharge hole and the punching component.

[0023] By adopting the above technical solution, when the carrier belt reaches the upper end of the seat plate, the punching part punches holes in the carrier belt, and the waste material will fall into the collection hopper through the discharge hole.

[0024] Preferably, the workbench is provided with a feeding auxiliary device; the feeding auxiliary device includes a fixed frame on the workbench, a horizontal reciprocating drive member on the fixed frame, a fixed plate on the horizontal reciprocating drive member, the horizontal reciprocating drive member being used to drive the fixed plate to reciprocate along the direction from the unwinding device to the winding device; a vertical reciprocating drive member is provided on the fixed plate, a clamping plate is provided on the output end of the vertical reciprocating drive member, and a clamping area is formed between the clamping plate and the fixed plate.

[0025] By adopting the above technical solution, the vertical reciprocating drive can clamp the carrier belt between the clamping plate and the fixing plate, and the carrier belt can be moved by driving the horizontal reciprocating drive.

[0026] In summary, the present invention has at least one of the following beneficial technical effects: 1. The unwinding device releases the carrier tape, which is then wound up by the winding device. During the conveying process, the hot pressing device heats the area on the tape to be imprinted, the imprinting device imprints pockets onto the tape, and the punching device creates positioning holes on the tape. Specifically, in the hot pressing action, the self-assembly mold mechanism can assemble molds of different sizes according to the objects to be stored. Then, by driving the imprinting component, the tape can be pressed onto the self-assembly mold mechanism to imprint pockets of different sizes onto the tape. Afterward, the lifting component moves the self-assembly mold mechanism to ensure that the tape can continue to be conveyed. 2. The mold sub-components can be moved so that the embossing surface can reach the self-assembly plane. Therefore, by moving the mold sub-components in different positions, different embossing patterns can be combined in the self-assembly plane. Furthermore, in this application, not only can embossing patterns of different sizes be combined in the self-assembly plane, but also embossing patterns of various shapes can be combined in the self-assembly plane, such as triangles, parallelograms, trapezoids, and rectangles. 3. Place the object to be stored on the push plate and drive the pusher to press the object onto the adaptive surface of multiple mold sub-parts. This will cause the adaptive sub-surface pressed by the object to move. The movement of the adaptive sub-surface is the movement of the corresponding mold sub-part. At this time, the smallest imprint pattern that can encapsulate the object can be adaptively formed in the self-assembly plane. Attached Figure Description

[0027] Figure 1 This is a schematic diagram of the overall structure of a carrier tape manufacturing device according to an embodiment of this application; Figure 2 This is a structural diagram illustrating the unwinding device; Figure 3 This is a structural schematic diagram used to illustrate the hot pressing device; Figure 4 This is a schematic diagram illustrating the structure of the embossing device; Figure 5 This is a structural diagram used to illustrate the self-assembly mold mechanism; Figure 6 It is a sectional view used to illustrate the self-assembly mold mechanism; Figure 7 This is a cross-sectional view used to illustrate the punching device; Figure 8 This is a structural diagram illustrating the feeding auxiliary device.

[0028] In the attached diagram, the following labels are used: a) Self-assembling plane; 1) Workbench; 2) Unwinding device; 21) Frame; 22) Winding component; 23) Driving component; 3) Rewinding device; 31) Reciprocating driving component; 32) Rewinding assembly; 4) Hot pressing device; 41) Frame body; 42) First lifting component; 43) First mounting component; 44) First hot pressing component; 45) Second lifting component; 46) Second mounting component; 47) Second hot pressing component; 5) Imprinting device; 51) Mounting frame; 52) Lifting component; 53) Connecting frame; 54) Self-assembling mold mechanism; 541) Support component; 5411) Receiving hole; 542) Mold sub-component; 5421) Imprinting sub-surface; 5422) 543. Adaptive sub-surface; 5431. Clamping mechanism; 5432. Hydraulic expansion component; 5433. Receiving tank; 5433. Liquid flow channel; 5434. Liquid inlet; 544. Pushing component; 545. Push plate; 55. Imprinting component; 551. Imprinting cylinder; 552. Imprinting block; 6. Punching device; 61. Support; 62. Punching component; 621. Punching cylinder; 622. Punching plate; 623. Punching column; 63. Seat plate; 631. Material drop hole; 64. Collection hopper; 7. Feeding auxiliary device; 71. Fixing frame; 72. Lateral reciprocating drive component; 73. Fixing plate; 74. Vertical reciprocating drive component; 75. Clamping plate; 76. Clamping area. Detailed Implementation

[0029] The present invention will be further described in detail below with reference to the accompanying drawings.

[0030] In the description of this invention, it should be understood that the orientation descriptions, such as up, down, front, back, left, right, etc., are based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limiting this invention.

[0031] This application discloses a carrier tape manufacturing apparatus. It is used to automatically form pockets of different sizes and shapes on a carrier tape.

[0032] Reference Figure 1 A carrier tape manufacturing device includes a workbench 1. On the left and right sides of the workbench 1, there are respectively an unwinding device 2 for unwinding the tape and a winding device 3 for winding the tape. The unwinding device 2 and the winding device 3 are existing technologies and will not be described in detail here. From left to right, the workbench 1 is provided with a hot pressing device 4, an imprinting device 5 and a punching device 6. The hot pressing device 4 is used to heat the position on the tape to be imprinted. The imprinting device 5 is used to imprint pockets on the tape. The punching device 6 is used to open positioning holes on the tape.

[0033] First, the tape is wound onto the unwinding device 2 and released. Then, the winding device 3 receives and winds up the tape. The tape passes through the hot pressing device 4, the embossing device 5, and the punching device 6 in sequence, thereby performing hot pressing softening of the tape, embossing of pockets on the tape, and opening of positioning holes on the tape.

[0034] Reference Figure 1 and Figure 2 The unwinding device 2 includes a frame 21, which is mounted on the workbench 1. A winding component 22 is mounted on the frame 21. A drive component 23 is also mounted on the frame 21. The drive component 23 is preferably a motor. The drive component 23 is connected to the winding component 22 and is used to drive the winding component 22 to rotate for winding the tape.

[0035] Reference Figure 1 and Figure 2 The winding device 3 includes a reciprocating drive 31 mounted on the worktable 1. The reciprocating drive 31 is equipped with a winding assembly 32. The winding assembly 32 has the same structure as the unwinding device 2. The reciprocating drive 31 can drive the winding assembly 32 to move back and forth, thereby adjusting the winding position of the tape.

[0036] Reference Figure 3The hot pressing device 4 includes a frame 41 mounted on a workbench 1. The frame 41 is provided with a first lifting member 42, the first lifting member 42 is provided with a first mounting member 43, and the first mounting member 43 is provided with a plurality of first hot pressing members 44 for hot pressing. The frame 41 is also provided with a second lifting member 45, and the second lifting member 45 is provided with a second mounting member 46. Both the first lifting member 42 and the second lifting member 45 are preferably cylinders. The second mounting member 46 is provided with the same number of second hot pressing members 47 for hot pressing as the first hot pressing members 44. Both the first hot pressing members 44 and the second hot pressing members 47 include internal heating rods. The specific structures of the first hot pressing members 44 and the second hot pressing members 47 are existing technologies and will not be described in detail here. Each first hot pressing member 44 is arranged opposite to a corresponding second hot pressing member 47.

[0037] The strap will reach between the first hot press member 44 and the second hot press member 47, driving the first lifting member 42 and the second lifting member 45 to bring the first hot press member 44 and the second hot press member 47 closer to each other and press against the strap, thus softening the strap to facilitate subsequent pocket stamping.

[0038] Reference Figure 4 The embossing device 5 includes a mounting frame 51 on the worktable 1, a lifting component 52 on the mounting frame 51, preferably a cylinder, a connecting frame 53 on the lifting component 52, and three self-assembling mold mechanisms 54 on the connecting frame 53. The self-assembling mold mechanisms 54 are configured to automatically assemble molds of different sizes according to the size of the object being stored. The mounting frame 51 also includes an embossing component 55. The embossing component 55 includes an embossing cylinder 551 on the mounting frame 51, an embossing block 552 on the embossing cylinder 551, and the embossing cylinder 551 can drive the embossing block 552 to move downward.

[0039] The tape will reach between the imprinting part 55 and the self-assembly mold mechanism 54. At this time, the driving lifting part 52 drives the connecting frame 53 to rise, thereby causing the self-assembly mold mechanism 54 to rise. At the same time, the driving imprinting cylinder 551 drives the imprinting block 552 to move down and press the tape. At this time, the self-assembly mold mechanism 54 will imprint a pocket on the tape.

[0040] Reference Figure 5 and Figure 6 The self-assembly mold mechanism 54 includes a support member 541 mounted on a connecting frame 53. The support member 541 has multiple receiving holes 5411 through it. The receiving holes 5411 are vertically arranged and evenly distributed horizontally and vertically. Each receiving hole 5411 is fitted with a mold sub-part 542. The mold sub-part 542 is slidably connected to the receiving hole 5411. Each mold sub-part 542 is supported by the support member 541. Multiple mold sub-parts 542 can be combined to form molds of different sizes. The support member 541 is also provided with a clamping mechanism 543, which is used to clamp the mold sub-part 542.

[0041] Reference Figure 5 and Figure 6 Each mold component 542 has an embossing surface 5421 at its top. Under normal conditions, multiple embossing surfaces 5421 are in the same plane. A self-assembly plane a is formed between the output end of the embossing component 55 and the embossing surface 5421. The self-assembly plane a is a horizontal plane. Each mold component 542 is configured to move until the embossing surface 5421 reaches the self-assembly plane a to participate in the embossing pattern combination.

[0042] Reference Figure 4 and Figure 5 Each mold sub-part 542 has an adaptive sub-surface 5422 at its bottom. Under normal conditions, multiple adaptive sub-surfaces 5422 form an adaptive surface within the same plane. Combined with... Figure 3 The connecting frame 53 is also provided with a pusher 544, which is preferably a cylinder. The pusher 544 is provided with a push plate 545, which is located below the mold sub-part 542. The projection of the push plate 545 on the vertical line is greater than the projection of the support 541 on the vertical line.

[0043] The self-assembly process of the mold: The object to be stored is placed above the push plate 545. The driving pusher 544 moves the push plate 545 upward, pressing the object onto the bottom of multiple mold sub-parts 542, i.e., the adaptive surface. The adaptive sub-surface 5422 pressed by the stored object will move, i.e., the corresponding mold sub-part 542 moves. At this time, the smallest imprint pattern that can encapsulate the object can be adaptively formed within the self-assembly plane a. Then, the clamping mechanism 543 is driven to clamp the multiple mold sub-parts 542, thus completing the mold self-assembly.

[0044] Reference Figure 4 and Figure 5 In order to enable the self-assembly mold mechanism 54 to imprint pockets of different sizes or even different shapes on the belt, the imprinting sub-surface 5421 is triangular, and four imprinting sub-surfaces 5421 are combined to form an imprinting mother surface. The imprinting mother surface is square, and there are multiple imprinting mother surfaces. The multiple imprinting mother surfaces are evenly distributed horizontally and vertically. In this embodiment, the imprinting mother surfaces are distributed in a 3x3 pattern.

[0045] In this embodiment, the embossed surface 5421 can form patterns of different shapes, such as triangles, parallelograms, trapezoids, and rectangles, within the self-assembling plane a. These different shaped patterns facilitate the encapsulation of objects of different shapes to be stored.

[0046] Reference Figure 6The clamping mechanism 543 includes a hydraulic expansion member 5431. Each receiving hole 5411 has a receiving groove 5432 on its inner wall. The hydraulic expansion member 5431 is disposed on the inner wall of the receiving groove 5432. The specific structure of the hydraulic expansion member 5431 is prior art and will not be described in detail here. The hydraulic expansion member 5431 is used to clamp the mold sub-part 542. The support member 541 has a liquid flow channel 5433, which communicates with the interior of each hydraulic expansion member 5431. Figure 5 The fluid channel 5433 extends to the outer wall of the support 541 and forms a fluid inlet 5434, which is used to connect to an external hydraulic workstation.

[0047] By supplying liquid to the inlet 5434 through an external hydraulic workstation, the liquid can enter the interior of each hydraulic expansion component 5431, and each hydraulic expansion component 5431 will expand to clamp each mold sub-component 542.

[0048] Alternatively, a model of the same size and shape as the object to be stored can be pre-fabricated, and then this model can be pressed onto the adaptive plane to obtain the embossed pattern. The model is then left in place. This prevents the mold component 542 from sliding during pocket embossing.

[0049] Reference Figure 7 The punching device 6 includes a bracket 61 mounted on the workbench 1, and a punching component 62 mounted on the bracket 61. Specifically, the punching component 62 includes a punching cylinder 621 mounted on the bracket 61, a stamping plate 622 mounted on the output end of the punching cylinder 621, and a plurality of punching posts 623 mounted on the bottom end of the stamping plate 622. The bracket 61 is also provided with a seat plate 63, and a material discharge hole 631 is provided on the seat plate 63 in the direction pointing to the output end of the punching component 62. A collection hopper 64 is provided on the side of the bracket 61 away from the material discharge hole 631 and away from the punching component 62.

[0050] When the carrier belt reaches the seat plate 63, the driving punching cylinder 621 drives the stamping plate 622 to move down, thereby punching multiple punching columns 623 onto the carrier belt. The punched-off waste material will fall into the collection hopper 64 through the discharge hole 631.

[0051] Reference Figure 8 The workbench 1 is equipped with a feeding auxiliary device 7; the feeding auxiliary device 7 includes a fixed frame 71 on the workbench 1, a transverse reciprocating drive 72 on the fixed frame 71, the transverse reciprocating drive 72 is a slide cylinder, a fixed plate 73 is provided on the transverse reciprocating drive 72, the transverse reciprocating drive 72 is used to drive the fixed plate 73 to reciprocate along the direction from the unwinding device 2 to the winding device 3; a vertical reciprocating drive 74 is provided on the fixed plate 73, the vertical reciprocating drive 74 is a cylinder, a clamping plate 75 is provided on the output end of the vertical reciprocating drive 74, and a clamping area 76 is formed between the clamping plate 75 and the fixed plate 73.

[0052] The auxiliary feeding action of the carrier belt: The carrier belt will pass through the clamping area 76. At this time, the vertical reciprocating drive 74 drives the clamping plate 75 to move down and press the carrier belt against the fixed plate 73. Then the horizontal reciprocating drive 72 drives the carrier belt to move to the right. After that, the drive releases the carrier belt from the reciprocating drive and repeats the above action to complete the auxiliary feeding of the carrier belt.

[0053] The implementation principle of a carrier tape manufacturing device in this application embodiment is as follows: First, the tape is wound around the winding member 22 and released, and then wound up by the winding device 3. The object to be stored is placed above the push plate 545. The driving push member 544 drives the push plate 545 to move upward, pressing the object to be stored onto the bottom of multiple mold sub-parts 542, i.e., the adaptive surface. The adaptive sub-surface 5422 pressed by the stored object will move, i.e., the corresponding mold sub-part 542 moves. Liquid is supplied to the inlet 5434 through the external hydraulic workstation, so that the liquid enters into the interior of each hydraulic expansion member 5431. Each hydraulic expansion member 5431 expands and clamps each mold sub-part 542. At this time, the mold self-assembly is completed. The drive component 23, the vertical reciprocating drive component 74, and the horizontal reciprocating drive component 72 drive the belt to move. When the belt passes between the first hot press component 44 and the second hot press component 47, the drive component 42 and the second lifting component 45 drive the first hot press component 44 and the second hot press component 47 to move closer to each other and press against the belt, thus softening the belt. The softened strip will then reach between the imprinting part 55 and the mold part 542. The driving lifting part 52 will drive the connecting frame 53 to rise, thereby causing multiple mold parts 542 to move up and press the strip. At the same time, the driving imprinting cylinder 551 will drive the imprinting block 552 to move down and press the strip. At this time, the self-assembled mold mechanism 54 will imprint a pocket on the strip. After the carrier belt reaches the seat plate 63, the driving punching cylinder 621 drives the stamping plate 622 to move down, thereby punching multiple punching pins 623 onto the carrier belt. The punched-off waste material will fall into the collection hopper 64 through the discharge hole 631.

[0054] The embodiments described herein are preferred embodiments of the present invention and are not intended to limit the scope of protection of the present invention. Therefore, all equivalent changes made in accordance with the structure, shape, and principle of the present invention should be covered within the scope of protection of the present invention.

Claims

1. A carrier tape manufacturing apparatus, characterized in that: The device includes a workbench (1), on which an unwinding device (2) for unwinding the tape and a winding device (3) for winding the tape are respectively provided on both sides. A hot pressing device (4), an imprinting device (5) and a punching device (6) are arranged sequentially from the unwinding device (2) to the winding device (3) on the workbench (1). The hot pressing device (4) is used to heat the position on the tape to be imprinted. The imprinting device (5) is used to imprint a pocket on the tape. The punching device (6) is used to open a positioning hole on the tape. The embossing device (5) includes a mounting frame (51) on a workbench (1), a lifting member (52) on the mounting frame (51), a connecting frame (53) on the lifting member (52), a self-assembling mold mechanism (54) on the connecting frame (53), the self-assembling mold mechanism (54) being configured to self-assemble molds of different sizes according to the size of the object to be stored; the mounting frame (51) also includes an embossing member (55), the embossing member (55) being used to press the strap onto the self-assembling mold mechanism (54) to emboss a pocket on the strap; The self-assembly mold mechanism (54) includes a support member (541) disposed on a connecting frame (53). The support member (541) has multiple receiving holes (5411) through it. Each receiving hole (5411) is provided with a mold sub-part (542). The mold sub-part (542) is slidably connected to the receiving hole (5411). Each mold sub-part (542) is supported by the support member (541). Multiple mold sub-parts (542) can be combined to form molds of different sizes. The support member (541) is also provided with a clamping mechanism (543), which is used to clamp the mold sub-parts (542); the top of each mold sub-part (542) is an imprinting surface (5421), and under normal conditions, multiple imprinting surfaces (5421) are in the same plane; a self-assembly plane (a) is formed between the output end of the imprinting member (55) and the imprinting surface (5421), and each mold sub-part (542) is configured to move until the imprinting surface (5421) reaches the self-assembly plane (a) to participate in the imprinting pattern combination.

2. The carrier tape manufacturing equipment according to claim 1, characterized in that: The four imprint sub-surfaces (5421) are combined to form an imprint master surface. There are multiple imprint master surfaces, which are evenly distributed horizontally and vertically. The imprint sub-surfaces (5421) are triangular, and the imprint master surface is square.

3. The carrier tape manufacturing equipment according to claim 1, characterized in that: The bottom end of each of the mold sub-parts (542) is an adaptive sub-surface (5422). Under normal conditions, multiple adaptive sub-surfaces (5422) form an adaptive surface in the same plane.

4. The carrier tape manufacturing equipment according to claim 3, characterized in that: The connecting frame (53) is also provided with a pusher (544), and the pusher (544) is provided with a push plate (545), which is located below the mold sub-part (542).

5. The carrier tape manufacturing equipment according to claim 1, characterized in that: The clamping mechanism (543) includes a hydraulic expansion member (5431), and a receiving groove (5432) is opened on the inner wall of each receiving hole (5411). The hydraulic expansion member (5431) is disposed on the inner wall of the receiving groove (5432) and is used to clamp the mold sub-part (542). The support member (541) is provided with a liquid flow channel (5433), which is connected to the interior of each hydraulic expansion member (5431). The liquid flow channel (5433) extends to the outer wall of the support member (541) and forms a liquid inlet (5434).

6. The carrier tape manufacturing equipment according to claim 1, characterized in that: The hot pressing device (4) includes a frame (41) mounted on a workbench (1). The frame (41) is provided with a first lifting member (42), and the first lifting member (42) is provided with a first mounting member (43). The first mounting member (43) is provided with a plurality of first hot pressing members (44) for hot pressing. The frame (41) is also provided with a second lifting member (45), and the second lifting member (45) is provided with a second mounting member (46). The second mounting member (46) is provided with the same number of second hot pressing members (47) for hot pressing as the first hot pressing members (44). Each first hot pressing member (44) is arranged opposite to a corresponding second hot pressing member (47).

7. The carrier tape manufacturing equipment according to claim 1, characterized in that: The punching device (6) includes a bracket (61) mounted on a workbench (1), and a punching part (62) is mounted on the bracket (61); a seat plate (63) is also mounted on the bracket (61), and a discharge hole (631) is provided on the seat plate (63) in the direction of the output end of the punching part (62); a collection hopper (64) is provided on the side of the bracket (61) away from the discharge hole (631) and away from the punching part (62).

8. The carrier tape manufacturing equipment according to claim 1, characterized in that: The workbench (1) is provided with a feeding auxiliary device (7); the feeding auxiliary device (7) includes a fixed frame (71) provided on the workbench (1), the fixed frame (71) is provided with a transverse reciprocating drive (72), the transverse reciprocating drive (72) is provided with a fixed plate (73), the transverse reciprocating drive (72) is used to drive the fixed plate (73) to reciprocate along the direction from the unwinding device (2) to the winding device (3); the fixed plate (73) is provided with a vertical reciprocating drive (74), the output end of the vertical reciprocating drive (74) is provided with a clamping plate (75), and a clamping area (76) is formed between the clamping plate (75) and the fixed plate (73).

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