Conveying mechanism for splicing double materials in opposite directions

Abstract

The utility model provides a conveying mechanism for splicing double materials oppositely, the double materials are a new material belt and an old material belt, and the conveying mechanism comprises a driving assembly used for generating conveying force; the conveying assemblies are connected with the driving assembly to obtain conveying force, one conveying assembly conveys a new material belt, the other conveying assembly conveys an old material belt, and the conveying directions of the two conveying assemblies are opposite; the conveying assembly comprises first fixing pieces, one ends of the first fixing pieces are connected with one faces of the material belts in an attached mode, the other ends of the first fixing pieces are suspended on the other faces of the material belts, a new material belt is located in one first fixing piece, and an old material belt is located in the other first fixing piece. Wherein the height direction perpendicular to the conveying direction and parallel to the conveying assembly is the vertical direction, and the first fixing piece forms conveying guide of the material belt in the vertical direction; the conveying assembly is perpendicular to the conveying direction and parallel to the width of the conveying assembly, and the conveying assembly clamps the material belt in the perpendicular direction. Through the structure, the conveying stability is improved.

Description

Technical Field

[0001] The present application relates to the field of automation, and particularly to a conveying mechanism for double-material moving towards each other and splicing. Background Art

[0002] SIM tapes are usually placed in trays and fixed in automated production. There has been a proposal to use automated equipment to automatically splice the tail of an old tape roll with the head of a new tape roll.

[0003] When the existing tape splicing mechanism conveys the tape, the conveying mechanism is prone to tape deviation and tape jitter, which affects the splicing effect.

[0004] Therefore, a conveying mechanism for double-material moving towards each other and splicing that can improve the stability of tape conveyance is needed. Summary of the Utility Model

[0005] In view of this, it is necessary to provide a conveying mechanism for double-material moving towards each other and splicing that improves the stability of tape conveyance to solve the above problems.

[0006] An embodiment of the present application provides a conveying mechanism for double-material moving towards each other and splicing. The double materials are a new tape and an old tape. The conveying mechanism includes:

[0007] A driving component for generating a conveying force;

[0008] A conveying component connected to the driving component to obtain the conveying force. One conveying component conveys the new tape, and the other conveying component conveys the old tape, and the conveying directions of the two conveying components are towards each other;

[0009] The conveying component includes:

[0010] A first fixing member, one end of which is adhesively connected to one side of the tape, and the other end is suspended on the other side of the tape. The new tape is located in one first fixing member, and the old tape is located in the other first fixing member;

[0011] Wherein, the height perpendicular to the conveying direction and parallel to the conveying component is the vertical direction, and the first fixing member forms a conveying guide for the tape along the vertical direction;

[0012] The width perpendicular to the conveying direction and parallel to the conveying component is the vertical direction, and the conveying component clamps the tape along the vertical direction.

[0013] In at least one embodiment of the present application, the first fixing member includes:

[0014] A pressing portion slidably connected to the tape. When observed along the conveying direction, one end of the pressing portion is adhesively connected to one side of the tape, and the other end is suspended on the other side of the tape;

[0015] The adjusting part is slidably connected to one end of the pressing part along the second direction, departing from the pressing part.

[0016] In at least one embodiment of the present application, the conveying assembly further includes:

[0017] An adjusting shaft, connected to the driving assembly to obtain an adjusting force;

[0018] An adjusting block, with one end slidably connected to the adjusting shaft and the other end fixedly connected to the adjusting part, and adjusting the distance for placing the tape between the adjusting part and the pressing part.

[0019] In at least one embodiment of the present application, the driving assembly includes:

[0020] A first driving member, electrically connected to the conveying assembly and providing a conveying force. Among them, one first driving member is correspondingly electrically connected to one conveying assembly, and the other first driving member is correspondingly electrically connected to another conveying assembly;

[0021] A second driving member, driving the adjusting block to slide along the adjusting shaft.

[0022] In at least one embodiment of the present application, the conveying assembly further includes:

[0023] A conveying shaft, electrically connected to the driving assembly through a conveyor belt and used for transmitting the conveying force;

[0024] A gear, connected to one end of the conveying shaft away from the driving assembly, fixedly connected to the first fixing member, and located inside the pressing part. The gear is meshed and connected to the tape;

[0025] A sensor, arranged in the pressing part and located below the tape. One sensor detects the conveying position of the new tape, and the other sensor detects the conveying position of the old tape;

[0026] Among them, the two gears obtain the conveying force and generate a relative rotational movement. One gear drives the new tape to be slidably connected to one conveying assembly, and the other gear drives the old tape to be slidably connected to another conveying assembly.

[0027] In at least one embodiment of the present application, the conveying assembly further includes:

[0028] A second fixing member, connected to the first fixing member, located at one end close to the driving assembly, and tightly clamped and connected to the conveying shaft and the adjusting shaft.

[0029] In at least one embodiment of the present application, the conveying mechanism further includes:

[0030] The splicing area is formed by connecting two conveying components and is used to perform the splicing action of the new material belt and the old material belt;

[0031] A shearing assembly connected to the conveying assembly, wherein two shearing assemblies are symmetrically arranged at two ends of the splicing area, one shearing assembly shears the new material strip, and the other shearing assembly shears the old material strip;

[0032] Wherein, the new material belt and the old material belt are respectively and sequentially slidably connected with the corresponding conveying mechanism, the shearing assembly and the splicing area.

[0033] In at least one embodiment of the present application, the shearing assembly comprises:

[0034] The shearing piece is located above the material strip and is connected to the material strip and shears the material strip, one shearing piece shears the new material strip and the other shearing piece shears the old material strip;

[0035] A stabilizing member is adhered to and slidably connected with the shearing member, and the shearing member is located inside the stabilizing member. The stabilizing member is located at one end of the material strip away from the shearing member. The stabilizing member is provided with a fitting portion, and the fitting portion is located above the material strip. The fitting portion is adhered to and connected with the material strip during shearing.

[0036] In at least one embodiment of the present application, the shearing assembly further comprises:

[0037] A first locking member, one end of which is fixedly connected to the transmission assembly, and the other end of which is slidably connected to an end of the stabilizing member away from the shearing member;

[0038] One of the locking members is fixedly connected to a transmission component, and the other of the locking members is fixedly connected to another transmission component.

[0039] The second locking member is connected to the first locking member and is closely connected to an end of the shearing member facing away from the stabilizing member.

[0040] In at least one embodiment of the present application, the shearing assembly further comprises:

[0041] A first pushing member is fixedly connected to the shearing member, and the first pushing member drives the shearing member to slide upward by an external force to approach the material strip and shear the material strip;

[0042] The second pushing member is fixedly connected to the stabilizing member. The second pushing member drives the stabilizing member to slide downward through an external force to approach the material belt and fix the material belt.

[0043] The above-mentioned conveying mechanism for splicing double materials running towards each other ensures the stability of the material belt during the conveying process through the design of the fixing parts, reduces the jitter and deviation of the material belt during the splicing process, and increases the reliability of the system. Brief Description of the Drawings

[0044] Figure 1 A perspective view of the conveying mechanism for two-material facing and running towards each other for splicing according to the present application;

[0045] Figure 2 A front view of the conveying mechanism for two-material facing and running towards each other for splicing according to the present application;

[0046] Figure 3 A top view of the conveying mechanism for two-material facing and running towards each other for splicing according to the present application;

[0047] Figure 4 An exploded view of the conveying mechanism for two-material facing and running towards each other for splicing according to the present application;

[0048] Figure 5 A perspective view of the conveying component according to the present application;

[0049] Figure 6 An exploded view of the conveying component according to the present application;

[0050] Figure 7 For the conveying component according to the present application in Figure 3 A sectional view taken along line A-A;

[0051] Figure 8 A perspective view of the shearing component according to the present application;

[0052] Figure 9 An exploded view of the shearing component according to the present application;

[0053] Figure 10 For Figure 7 A partial enlarged view taken along line B-B;

[0054] Description of the Main Element Symbols

[0055] 100, Conveying mechanism for two-material facing and running towards each other for splicing; 10, Driving component; 11, First driving member; 12, Second driving member; 20, Conveying component; 20a, One of the conveying components; 20b, The other conveying component; 21, First fixing member; 211, Pressing portion; 212, Adjusting portion; 22, Adjusting shaft; 23, Adjusting block; 24, Conveying shaft; 25, Gear; 26, Second fixing member; 30, Material splicing area; 40, Shearing component; 40a, One of the shearing components; 40b, The other shearing component; 41, Shearing member; 42, Stabilizing member; 421, Fitting portion; 43, First locking member; 44, Second locking member; 45, First pushing member; 46, Second pushing member; 60, Tape; 61, New tape; 62, Old tape; F1, Vertical direction; F2, Perpendicular direction; F3, Conveying direction. Detailed Description of the Invention

[0056] The following will describe the embodiments of the present application in conjunction with the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only a part of the embodiments of the present application, rather than all of the embodiments.

[0057] It should be noted that when a component is considered to be "connected" to another component, it can be directly connected to the other component or there may be an intermediate component. When a component is considered to be "disposed on" another component, it can be directly disposed on the other component or there may be an intermediate component. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "rear", and similar expressions used herein are for illustrative purposes only.

[0058] The following will elaborate on some embodiments of the present application in conjunction with the accompanying drawings. Without conflict, the following embodiments and the features in the embodiments can be combined with each other.

[0059] Please refer to Figures 1 - 10 , an embodiment of the present application provides a conveying mechanism 100 for double-material moving towards each other and splicing. The double materials are a new tape 61 and an old tape 62. The conveying mechanism includes: a driving component 10 and a conveying component 20. The driving component 10 is used to generate a conveying force. The conveying component 20 is connected to the driving component 10 to obtain the conveying force. One of the conveying components 20a conveys the new tape 61, and the other conveying component 20b conveys the old tape 62. And the conveying directions F3 of the two conveying components 20 are towards each other. The conveying component 20 includes: a first fixing member 21. One end of the first fixing member 21 is adhesively connected to one side of the tape 60, and the other end is suspended on the other side of the tape 60. The new tape 61 is located within one of the first fixing members 21, and the old tape 62 is located within the other first fixing member 21. Wherein, the height perpendicular to the conveying direction F3 and parallel to the conveying component 20 is the vertical direction F1, and the first fixing member 21 forms a conveying guide for the tape 60 along the vertical direction F1. The width perpendicular to the conveying direction F3 and parallel to the conveying component 20 is the vertical direction F2, and the conveying component 20 clamps the tape 60 along the vertical direction F2.

[0060] Before further elaboration, it should be noted that the tape 60 can be the new tape 61 or the old tape 62.

[0061] Specifically, the conveying mechanism 100 for double-material moving towards each other and splicing realizes the replacement of the tape 60 without stopping the machine by connecting the head and tail of the new tape 61 and the old tape 62, thereby improving the production efficiency.

[0062] The driving component 10 provides power to enable the tape 60 to move along a predetermined path and speed. The driving component 10 generally includes a motor, a transmission device, etc., to ensure that the conveying component 20 can operate smoothly.

[0063] The conveying assembly 20 respectively carries and conveys the new tape 61 and the old tape 62, ensuring that they move towards each other within the splicing area and are spliced at an appropriate position. Each conveying assembly 20 operates independently through the conveying force provided by the driving assembly 10. The opposite design of the conveying direction F3 ensures that the new and old tapes 62 meet within a specific area, achieving seamless splicing.

[0064] The first fixing member 21 provides guidance and fixation for the tape 60, preventing the tape 60 from shifting and jittering during conveyance, and ensuring the smooth operation of the tape 60. One end of the first fixing member 21 is closely attached to one side of the tape 60, providing stable support. The other end of the first fixing member 21 is suspended, avoiding unnecessary friction and obstruction to the tape 60 during conveyance.

[0065] The new tape 61 and the old tape 62 are respectively placed within their respective first fixing members 21 to ensure the stability of their respective conveying paths.

[0066] The height perpendicular to the conveying direction F3 and parallel to the conveying assembly 20 is the vertical direction F1. The first fixing member 21 forms a conveying guide for the tape 60 along the vertical direction F1. Through the guidance of the vertical direction F1, it is ensured that the tape 60 moves in a straight line during conveyance, reducing jitter and deviation, and improving the splicing accuracy.

[0067] The vertical guiding structure of the first fixing member 21 prevents the tape 60 from shifting up and down during conveyance, maintaining smooth and straight movement.

[0068] The width perpendicular to the conveying direction F3 and parallel to the conveying assembly 20 is the vertical direction F2. The conveying assembly 20 clamps the tape 60 along the vertical direction F2. Through the clamping in the vertical direction F2, the tape 60 is further fixed, preventing it from shifting left and right during conveyance, and ensuring the accuracy of the conveying path of the tape 60. The vertical clamping structure of the conveying assembly 20 keeps the tape 60 stable left and right during conveyance, avoiding deviation and jitter.

[0069] The driving assembly 10 provides a conveying force, and transfers the power to the tape 60 through the conveying assembly 20, enabling it to move in a set direction and speed.

[0070] The opposite conveyance of the new tape 61 and the old tape 62 ensures that the two tapes 60 meet within the splicing area, providing conditions for the splicing operation and avoiding the problem of inaccurate docking of the tapes 60.

[0071] The fitting and suspension design of the first fixing member 21, with one end fitting to provide stable support and the suspended part reducing friction and obstruction, ensures the smooth conveyance of the tape 60.

[0072] Guiding and clamping in the vertical direction F1 and the perpendicular direction F2, double fixation ensures the stability and accuracy of the strip 60 during transmission, reduces jitter and deviation, and improves the splicing quality.

[0073] The splicing process of the strip 60 is as follows:

[0074] Fix the driving component 10 on the base of the conveying mechanism to ensure its stable operation. Connect the conveying component 20 to the driving component 10 to ensure that the conveying component 20 can obtain the conveying force.

[0075] Place the new strip 61 and the old strip 62 in their respective conveying components 20 respectively, and conduct guiding and fixation through the first fixing piece 21. Ensure that the strip 60 does not deviate or jitter during transmission.

[0076] Start the driving component 10 to generate a conveying force, and convey the strip 60 to the designated position through the conveying component 20.

[0077] When the new strip 61 and the old strip 62 meet in the designated area, perform a splicing operation through automated equipment to complete the docking of the new and old strips 62.

[0078] During continuous production, the splicing of the new and old strips 62 can avoid downtime caused by frequent replacement of the strip 60, and improve production efficiency.

[0079] In a specific embodiment, the first fixing piece 21 includes: a pressing part 211 and an adjusting part 212.

[0080] The pressing part 211 is slidably connected to the strip 60. Observed along the conveying direction F3, one end of the pressing part 211 is in fitting connection with one side of the strip 60, and the other end is suspended from the other side of the strip 60. The adjusting part 212 is slidably connected to the pressing part 211 along a second direction away from one end of the pressing part 211.

[0081] Specifically, the main function of the pressing part 211 is to provide a stable conveying path for the strip 60. Through the fitting connection and the suspended design, the pressing part 211 ensures the smooth operation of the strip 60 during transmission, and reduces friction and wear.

[0082] A certain frictional force is maintained between the pressing part 211 and the strip 60, so that the strip 60 can slide smoothly under the guidance of the pressing part 211. One end of the pressing part 211 is in close fit with the strip 60 to provide stable support and prevent the strip 60 from deviating.

[0083] The other end of the pressing part 211 is suspended from the other side of the strip 60, reducing the friction between the strip 60 and the fixing piece and preventing damage to the strip 60.

[0084] The function of the adjusting part 212 is to adjust the position of the pressing part 211 to adapt to the tape 60 with different widths, ensuring the stability and accuracy of the tape 60 during the conveying process.

[0085] The adjusting part 212 is slidably connected to the pressing part 211, and can adjust the position of the pressing part 211 as needed to adapt to tapes 60 of different specifications.

[0086] One end of the adjusting part 212 that deviates from the pressing part 211 along the second direction (usually perpendicular to the conveying direction F3) provides an adjustment space and torque, enabling the pressing part 211 to be adjusted flexibly.

[0087] In a specific embodiment, the conveying assembly 20 further includes: an adjusting shaft 22 and an adjusting block 23. The adjusting shaft 22 is connected to the driving assembly 10 to obtain an adjusting force. One end of the adjusting block 23 is slidably connected to the adjusting shaft 22, and the other end of the adjusting block 23 is fixedly connected to the adjusting part 212, and adjusts the distance for placing the tape 60 between the adjusting part 212 and the pressing part 211.

[0088] Specifically, the main function of the adjusting shaft 22 is to transmit the adjusting force, thereby controlling the movement of the adjusting block 23. Through the action of the adjusting shaft 22, precise adjustment of the positions of the pressing part 211 and the adjusting part 212 can be achieved.

[0089] The adjusting shaft 22 is connected to the driving assembly 10 through a mechanical connection, ensuring that the adjusting shaft 22 can receive the adjusting force transmitted by the driving assembly 10. The adjusting shaft 22 receives the force provided by the driving assembly 10 and transmits the adjusting force to the adjusting block 23 by rotating or linearly moving.

[0090] The function of the adjusting block 23 is to adjust the distance between the adjusting part 212 and the pressing part 211, ensuring that tapes 60 with different widths and thicknesses can be stably clamped during the conveying process.

[0091] One end of the adjusting block 23 is connected to the adjusting shaft 22 in a sliding connection manner and can slide along a certain track under the drive of the adjusting shaft 22. The other end of the adjusting block 23 is fixedly connected to the adjusting part 212, ensuring that the movement of the adjusting block 23 can directly affect the position of the adjusting part 212, thereby adjusting the distance between the pressing part 211 and the adjusting part 212.

[0092] By sliding the adjusting block 23, the distance between the adjusting part 212 and the pressing part 211 can be precisely adjusted according to the width and thickness of the tape 60, ensuring the stability and accuracy of the tape 60 during the conveying process.

[0093] The connection between the adjusting shaft 22 and the driving assembly 10 ensures that the adjusting shaft 22 can receive the adjusting force provided by the driving assembly 10 to achieve control of the adjusting block 23.

[0094] The adjustment shaft 22 drives the adjustment block 23 to move through a sliding connection method, ensuring that the adjustment block 23 can adjust its position along a set track.

[0095] The adjustment block 23 is fixedly connected to the adjustment part 212. By moving the adjustment block 23, the position of the adjustment part 212 is directly adjusted, thereby affecting the distance between the pressing part 211 and the adjustment part 212.

[0096] Through the sliding adjustment of the adjustment block 23, it is ensured that the distance between the adjustment part 212 and the pressing part 211 can adapt to different specifications of the tape 60, realizing stable clamping and conveying.

[0097] In a specific embodiment, the driving assembly 10 includes: a first driving member 11 and a second driving member 12. The first driving member 11 is electrically connected to the conveying assembly 20 and provides a conveying force. Among them, one first driving member 11 is correspondingly electrically connected to one conveying assembly 20, and the other first driving member 11 is correspondingly electrically connected to another conveying assembly 20. The second driving member 12 drives the adjustment block 23 to slide along the adjustment shaft 22.

[0098] Specifically, the main function of the first driving member 11 is to provide power for the conveying assembly 20, ensuring that the new tape 61 and the old tape 62 can be stably and accurately conveyed in opposite directions.

[0099] The first driving member 11 is connected to the conveying assembly 20 through an electrical connection method, and can convert electrical energy into mechanical energy to provide a conveying force.

[0100] Through a motor or other driving mechanism, the first driving member 11 generates a conveying force to convey the new tape 61 and the old tape 62 in opposite directions, ensuring that the two tapes 60 can be accurately docked.

[0101] The main function of the second driving member 12 is to drive the adjustment block 23 to slide along the adjustment shaft 22, thereby adjusting the distance between the pressing part 211 and the adjustment part 212 to adapt to different specifications of the tape 60.

[0102] The second driving member 12 is mechanically connected to the adjustment block 23 and can generate an adjustment force to drive the adjustment block 23 to slide along the adjustment shaft 22. Through the sliding connection method, the adjustment block 23 moves along the adjustment shaft 22 under the drive of the second driving member 12, realizing precise adjustment of the positions of the pressing part 211 and the adjustment part 212.

[0103] The electrical connection between the first driving member 11 and the conveying assembly 20 ensures that the first driving member 11 can provide a conveying force for the conveying assembly 20 to drive the new tape 61 and the old tape 62 to be conveyed in opposite directions.

[0104] Driven by the second driving member 12, the adjusting block 23 slides along the adjusting shaft 22 to adjust the distance between the pressing portion 211 and the adjusting portion 212, ensuring that the strip 60 can be stably clamped and conveyed.

[0105] In a specific embodiment, the conveying assembly 20 further includes: a conveying shaft 24, a gear 25 and a sensor. The conveying shaft 24 is electrically connected to the driving assembly 10 through a conveyor belt and is used to transmit the conveying force; the gear 25 is connected to one end of the conveying shaft 24 away from the driving assembly 10, the gear 25 is fixedly connected to the first fixing member 21, the gear 25 is located within the pressing portion 211, and the gear 25 is meshed with the strip 60. The sensor is disposed in the pressing portion 211. The sensor is located below the strip 60. One sensor detects the conveying position of the new strip 61, and the other sensor detects the conveying position of the old strip 62. Wherein, the two gears 25 obtain the conveying force and generate a relative rotational movement. One gear 25 drives the new strip 61 to be slidably connected to one conveying assembly 20a, and the other gear 25 drives the old strip 62 to be slidably connected to the other conveying assembly 20b.

[0106] Specifically, the main function of the conveying shaft 24 is to transmit the conveying force generated by the driving assembly 10, and transmit the conveying force to the conveying assembly 20 through the conveyor belt, ensuring that the new strip 61 and the old strip 62 can be stably conveyed.

[0107] The conveying shaft 24 is electrically connected to the driving assembly 10 through a conveyor belt, ensuring that electrical energy is converted into mechanical energy to drive the conveying shaft 24 to rotate.

[0108] The conveying shaft 24 transmits the conveying force generated by the driving assembly 10 to the conveying assembly 20 to push the strip 60 to be conveyed.

[0109] The main function of the gear 25 is to be connected to the conveying shaft 24, and meshed with the strip 60 through the transmission of the gear 25, ensuring that the strip 60 can be stably conveyed.

[0110] The gear 25 is connected to one end of the conveying shaft 24 away from the driving assembly 10, and the rotation of the conveying shaft 24 drives the gear 25 to rotate.

[0111] The gear 25 is fixedly connected to the first fixing member 21, ensuring the stability of the gear 25 during the conveying process.

[0112] The gear 25 is located within the pressing portion 211, meshed with the strip 60, transmits the conveying force, and pushes the strip 60 forward.

[0113] The main function of the sensor is to detect the conveying position of the strip 60, ensuring the precise positioning of the strip 60 during the conveying process.

[0114] The sensors respectively detect the conveying positions of the new tape 61 and the old tape 62 to ensure the precise docking of the two tapes 60 during the splicing process.

[0115] The sensors are arranged inside the pressing part 211, below the tape 60, and can monitor the conveying position of the tape 60 in real time.

[0116] The two gears 25 generate relative rotational motion by transmitting the conveying force to ensure that the new tape 61 and the old tape 62 are respectively conveyed in opposite directions. The gears 25 drive the tape 60 to be slidably connected to the conveying assembly 20 to ensure the stability of the tape 60 during the conveying process.

[0117] The conveying shaft 24 is electrically connected to the driving assembly 10 through a conveyor belt to ensure that the conveying force generated by the driving assembly 10 can be transmitted to the gears 25 through the conveying shaft 24 to push the tape 60 to convey.

[0118] The gears 25 are connected to the conveying shaft 24 and fixedly connected to the first fixing member 21 to ensure the stability of the gears 25 during the conveying process, and the tape 60 is pushed to convey by the rotation of the gears 25.

[0119] The sensors are arranged in the pressing part 211 and below the tape 60 to ensure the precise positioning of the tape 60 during the conveying process and prevent the tape 60 from shifting.

[0120] The two gears 25 generate relative rotational motion to ensure that the new tape 61 and the old tape 62 are respectively conveyed in opposite directions, and ensure the precise docking of the two tapes 60 during the splicing process.

[0121] In a specific embodiment, the conveying assembly 20 further includes: a second fixing member 26. The second fixing member 26 is connected to the first fixing member 21, the second fixing member 26 is located at one end close to the driving assembly 10, and the second fixing member 26 is respectively clamped and connected to the conveying shaft 24 and the adjusting shaft 22.

[0122] Specifically, the main function of the second fixing member 26 is to provide additional stability to ensure that the conveying assembly 20 does not shift in position during the conveying process, and at the same time provide support for the conveying shaft 24 and the adjusting shaft 22.

[0123] Through the structural design, the second fixing member 26 is firmly connected to the first fixing member 21 to enhance the stability of the overall structure.

[0124] The second fixing member 26 is located at one end close to the driving assembly 10, which helps to better transmit the conveying force generated by the driving assembly 10 to ensure the stable operation of the conveying shaft 24 and the adjusting shaft 22.

[0125] The second fixing member 26 is clamped and connected to the conveying shaft 24 and the adjusting shaft 22 to provide additional support and fixation to prevent position shift or loosening during the conveying and adjusting processes.

[0126] The second fixing member 26 is combined with the first fixing member 21 by a firm connection method, enhancing the stability and rigidity of the entire conveying assembly 20.

[0127] The second fixing member 26 is arranged at one end close to the driving assembly 10, which helps to transmit the conveying force generated by the driving assembly 10 and stabilize the operation of the conveying shaft 24 and the adjusting shaft 22.

[0128] Through a clamping connection method, the second fixing member 26 provides additional support and fixation for the conveying shaft 24 and the adjusting shaft 22, ensuring that there will be no position offset or loosening during the conveying and adjusting processes, and further improving the stability and precision of the conveying process.

[0129] In a specific embodiment, the conveying mechanism further includes: a splicing area 30 and a shearing assembly 40. The splicing area 30 is formed by connecting two conveying assemblies 20. The splicing area 30 is used to perform the splicing action of the new tape 61 and the old tape 60. The shearing assembly 40 is connected to the conveying assembly 20. The two shearing assemblies 40 are symmetrically arranged at both ends of the splicing area 30 respectively. One shearing assembly 40a shears the new tape 61, and the other shearing assembly 40b shears the old tape 60. Among them, the new tape 61 and the old tape 62 are respectively slidably connected to the corresponding conveying mechanism, the shearing assembly 40 and the splicing area 30 in sequence.

[0130] Specifically, the splicing area 30 is a key part of the conveying mechanism, which is used to accurately connect the new tape 61 and the old tape 62 together, ensuring seamless connection and the continuity of conveying.

[0131] Two conveying assemblies 20 in the conveying mechanism are connected together through a specific structural design to form a complete splicing area 30.

[0132] Within the splicing area 30, the new tape 61 and the old tape 62 pass through the corresponding conveying assemblies 20 in sequence, and complete the splicing through a series of actions, ensuring the continuity and stability of the tape 60.

[0133] The main function of the shearing assembly 40 is to cut the new tape 61 and the old tape 62 into the required lengths respectively before splicing, making preparations for the precise splicing of the new tape 61 and the old tape 62.

[0134] Symmetrically arranging at both ends of the splicing area 30 ensures that each tape 60 can be sheared at the correct position and time, so as to ensure the accurate length of the spliced tape 60.

[0135] The two shearing assemblies 40 correspond to the new tape 61 and the old tape 62 respectively, and cut the tape 60 through precise actions, ensuring that the cut is smooth and precise.

[0136] The conveying components 20 are connected together through a well-designed structure to ensure that the material belt 60 maintains the correct alignment and position during the conveying process, so that the splicing action can be carried out smoothly.

[0137] The conveying assembly 20 in the splicing area 30 is directly connected to the cutting assembly 40 to ensure that the material strip 60 is correctly cut immediately after splicing for subsequent processing or use.

[0138] In a specific implementation example, the shearing assembly 40 includes: a shearing piece 41 and a stabilizing piece 42. The shearing piece 41 is located above the material strip 60, and the shearing piece 41 is attached to and connected with the material strip 60 to shear the material strip 60. One shearing piece 41 shears the new material strip 61, and the other shearing piece 41 shears the old material strip 62. The stabilizing piece 42 is attached to and slidably connected with the shearing piece 41, and the shearing piece 41 is located inside the stabilizing piece 42, and the stabilizing piece 42 is located at one end of the material strip 60 away from the shearing piece 41, and the stabilizing piece 42 is provided with a fitting portion 421, and the fitting portion 421 is located above the material strip 60, and the fitting portion 421 is attached to and connected with the material strip 60 during shearing.

[0139] Specifically, the shearing piece 41 is a main execution component in the shearing process, ensuring that the material strip 60 can be cut accurately and evenly after the splicing is completed, so as to facilitate subsequent processing and use.

[0140] Before the material strip 60 passes through the splicing area 30 , the shearing member 41 is located above the material strip 60 , ready to perform a shearing action.

[0141] The shearing piece 41 is tightly fitted with the material strip 60 through a specific design, thereby ensuring the position and stability of the material strip 60 during the shearing process.

[0142] The two shearing pieces 41 are used to shear the new material strip 61 and the old material strip 62 respectively, ensuring the accuracy and efficiency of the shearing.

[0143] The main function of the stabilizing member 42 is to stabilize and control the material strip 60 during the cutting process, thereby ensuring the accuracy of the cutting action and the stability of the material strip 60 .

[0144] The stabilizing member 42 is tightly connected to the shearing member 41 to form a stable shearing working area to ensure that the material strip 60 will not move or twist during the shearing process.

[0145] The shearing member 41 is installed inside the stabilizing member 42, so that the stabilizing member 42 can effectively control the movement and position of the shearing member 41. The fitting portion 421 is located above the material strip 60, and the fitting portion 421 is closely fitted with the material strip 60 during shearing, ensuring that the shearing knife can accurately cut the material strip 60.

[0146] The shearing piece 41 is connected to the material strip 60 by a fitting connection, thereby ensuring that the material strip 60 will not be misplaced or moved during the shearing process, thereby ensuring the accuracy and efficiency of the shearing.

[0147] The stabilizing member 42 ensures stability and control during the shearing process, as well as correct positioning and support of the material strip 60 through its close connection with the shearing member 41 and its sliding design.

[0148] In a specific implementation example, the shearing assembly 40 further includes: a first locking member 43 and a second locking member 44 .

[0149] One end of the first locking member 43 is fixedly connected to the transmission assembly 20, and the other end is slidably connected to the end of the stabilizing member 42 away from the shearing member 41. One locking member is fixedly connected to one transmission assembly 20, and the other locking member is fixedly connected to another transmission assembly 20. The second locking member 44 is connected to the first locking member 43, and the second locking member 44 is closely connected to the end of the shearing member 41 away from the stabilizing member 42.

[0150] Specifically, the main function of the first locking member 43 is to ensure that the shearing assembly 40 maintains a stable position and angle when shearing the material strip 60, thereby ensuring the accuracy and reliability of the shearing process.

[0151] The first locking member 43 securely fixes the shearing member 41 on the conveying mechanism by connecting with the conveying assembly 20 and the stabilizing member 42 to avoid errors and instability during the shearing process.

[0152] The second locking member 44 is used to further ensure the stability and accuracy of the shearing member 41 when shearing the material strip 60. It is connected with the first locking member 43 to fit one end of the shearing member 41 with the stabilizing member 42 to ensure the correct position and stability of the material strip 60 during the shearing process.

[0153] The first locking member 43 is fixedly connected to the conveying assembly 20 at one end to ensure that the shearing assembly 40 does not move or loosen during the conveying process and maintains a fixed position. The other end is slidably connected to the end of the stabilizing member 42 away from the shearing member 41. This design allows the shearing assembly 40 to have a certain degree of freedom of movement when shearing the material strip 60 while maintaining the necessary stability.

[0154] In a specific implementation example, the shearing component 40 further includes:

[0155] A first pushing member 45 is fixedly connected to the shearing member 41. The first pushing member 45 drives the shearing member 41 to slide upward by an external force to approach the material strip 60 and shear the material strip 60;

[0156] The second pusher 46 is fixedly connected to the stabilizer 42. The second pusher 46 is driven by an external force to slide downwardly connected to the stabilizer 42 so as to approach the tape 60 and fix the tape 60.

[0157] Specifically, the main function of the first pusher 45 is to push the shearing member 41 upward by an external driving force so that it can closely adhere to and shear the passing tape 60. This ensures the accurate position and movement of the shearing knife during the shearing process to achieve precise shearing operation of the tape 60.

[0158] The function of the second pusher 46 is to push the stabilizer 42 downward by an external driving force to ensure that the tape 60 can be stably fixed in the correct position after shearing. This ensures that the sheared tape 60 will not move or be misaligned during splicing and subsequent processing, ensuring the continuity and quality of the production line.

[0159] The first pusher 45 is fixedly connected to the shearing member 41 and drives the shearing member 41 to move upward by an external force. This connection ensures the accuracy and controllability of the shearing knife during the shearing process.

[0160] The second pusher 46 is fixedly connected to the stabilizer 42 and drives the stabilizer 42 to move downward by an external force. This connection ensures that the sheared tape 60 can maintain the correct position and state under the support of the stabilizer 42.

[0161] The above are only the embodiments of the present application. It should be noted here that for those of ordinary skill in the art, improvements can be made without departing from the creative concept of the present application, but these all fall within the protection scope of the present application.

Claims

1. A conveying mechanism for splicing two materials in opposite directions, characterized in that: The double material is a new material belt and an old material belt, and the transmission mechanism includes: A driving assembly for generating a transmission force; A transmission component is connected to the driving component to obtain a transmission force, one of the transmission components transmits a new material belt, and the other transmission component transmits an old material belt, and the transmission directions of the two transmission components are opposite; The transmission component comprises: A first fixing member, one end of which is closely connected to one side of the material strip, and the other end of which is suspended on the other side of the material strip, the new material strip is located in one of the first fixing members, and the old material strip is located in another of the first fixing members; The height perpendicular to the conveying direction and parallel to the conveying assembly is the vertical direction, and the first fixing member forms a conveying guide for the material belt along the vertical direction; The vertical direction is perpendicular to the conveying direction and parallel to the width of the conveying component, and the conveying component clamps the material belt along the vertical direction.

2. A conveying mechanism for splicing two materials in opposite directions according to claim 1, characterized in that: The first fixing member comprises: A pressing part is slidably connected with the material belt. When viewed along the conveying direction, one end of the pressing part is in contact with one side of the material belt, and the other end is suspended on the other side of the material belt; The adjusting portion is slidably connected to one end of the pressing portion away from the pressing portion along the second direction.

3. A conveying mechanism for splicing two materials in opposite directions according to claim 2, characterized in that: The transmission component also includes: An adjusting shaft connected to the driving assembly to obtain an adjusting force; The adjusting block has one end slidably connected to the adjusting shaft and the other end fixedly connected to the adjusting portion, and adjusts the distance between the adjusting portion and the pressing portion for placing the material strip.

4. A conveying mechanism for splicing two materials in opposite directions according to claim 3, characterized in that: The drive assembly comprises: The first driving member is electrically connected to the transmission component and provides a transmission force, wherein one of the The first driving member is electrically connected to a transmission component, and the other first driving member is electrically connected to another transmission component; The second driving member drives the adjusting block to be slidably connected along the adjusting shaft.

5. A conveying mechanism for splicing two materials in opposite directions according to claim 3, characterized in that: The transmission component also includes: A transmission shaft, electrically connected to the driving assembly through a transmission belt and used to transmit a transmission force; A gear connected to one end of the transmission shaft away from the driving assembly and fixedly connected to the first fixing member, and located in the pressing portion, the gear being meshed and connected to the material belt; Sensors are arranged at the pressing part and below the material tape, one sensor detects the conveying position of the new material tape, and the other sensor detects the conveying position of the old material tape; The two gears obtain transmission force and generate relative rotational motion. One gear drives the new material belt to be slidably connected with one transmission component, and the other gear drives the old material belt to be slidably connected with another transmission component.

6. A conveying mechanism for splicing two materials in opposite directions according to claim 5, characterized in that: The transmission component also includes: The second fixing member is connected to the first fixing member, is located at one end close to the driving assembly, and is clamped and connected to the transmission shaft and the adjustment shaft.

7. A conveying mechanism for splicing two materials in opposite directions according to claim 1, characterized in that: The transmission mechanism also includes: The splicing area is formed by connecting two conveying components and is used to perform the splicing action of the new material belt and the old material belt; A shearing assembly connected to the conveying assembly, wherein two shearing assemblies are symmetrically arranged at two ends of the splicing area, one shearing assembly shears the new material strip, and the other shearing assembly shears the old material strip; Wherein, the new material belt and the old material belt are respectively and sequentially slidably connected with the corresponding conveying mechanism, the shearing assembly and the splicing area.

8. A conveying mechanism for splicing two materials in opposite directions according to claim 7, characterized in that: The shearing assembly comprises: The shearing piece is located above the material strip and is connected to the material strip and shears the material strip, one shearing piece shears the new material strip and the other shearing piece shears the old material strip; A stabilizing member is adhered to and slidably connected with the shearing member, and the shearing member is located inside the stabilizing member. The stabilizing member is located at one end of the material strip away from the shearing member. The stabilizing member is provided with a fitting portion, and the fitting portion is located above the material strip. The fitting portion is adhered to and connected with the material strip during shearing.

9. A conveying mechanism for splicing two materials in opposite directions according to claim 8, characterized in that: The shearing assembly also includes: A first locking member, one end of which is fixedly connected to the transmission assembly, and the other end of which is slidably connected to an end of the stabilizing member away from the shearing member; One of the locking members is fixedly connected to a transmission component, and the other of the locking members is fixedly connected to another transmission component. The second locking member is connected to the first locking member and is closely connected to an end of the shearing member facing away from the stabilizing member.

10. A conveying mechanism for splicing two materials in opposite directions according to claim 9, characterized in that: The shearing assembly also includes: A first pushing member is fixedly connected to the shearing member, and the first pushing member drives the shearing member to slide upward by an external force to approach the material strip and shear the material strip; The second pushing member is fixedly connected to the stabilizing member. The second pushing member drives the stabilizing member to slide downward through an external force to approach the material belt and fix the material belt.

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