Conductive cloth wrapping core-piercing machine and its method

Abstract

The present application provides a conductive cloth wrapping and core-passing machine and its method. The above-mentioned conductive cloth wrapping and core-passing machine includes a feeding mechanism, a core-passing mechanism, and a handling mechanism. The feeding mechanism is provided with a forming groove and is used for placing the conductive cloth. The core-passing mechanism includes a core-passing base, a forming component, and a closing component. The core-passing base is provided with a foam hole, a connecting hole, and a forming hole that are sequentially connected. The forming end of the forming component is movably inserted into the connecting hole, the forming hole, and the foam hole. The feeding mechanism is used to move the conductive cloth into the forming hole for forming. The power output end of the closing component is movably connected to the core-passing base, and the power output end of the closing component is used to push and close the two sides where the conductive cloth warps out. The handling mechanism is used to move the foam strip into the foam hole, and the forming end of the forming component is used to push the foam strip through the connecting hole and then into the forming hole. The whole process of processing the conductive cloth foam strip is completed by machinery, and continuous processing can be carried out, improving the processing efficiency of the conductive cloth foam strip.

Description

Technical Field

[0001] The present invention relates to the technical field of conductive cloth foam strip processing, and particularly to a conductive cloth wrapping and core-piercing machine and a method thereof. Background Art

[0002] A conductive cloth foam strip is composed of a conductive cloth wrapping a conductive foam. A hot melt adhesive is provided between the conductive cloth and the conductive foam, and the hot melt adhesive bonds the conductive cloth and the conductive foam into an integral structure. On the outer side surface of the conductive cloth, a conductive adhesive for fixing the conductive cloth foam strip is provided.

[0003] In the traditional technology, generally, the conductive cloth is manually wrapped around the outer side of the foam strip, but the labor intensity of manual wrapping is too high and the efficiency is low. In order to improve the wrapping efficiency, fixtures for assisting wrapping have appeared on the market. Workers manually operate the fixtures to wrap the conductive cloth around the foam strip, but the fixtures cannot free people's hands, and workers still need to continuously participate in the operation to complete the processing, resulting in a relatively low processing efficiency of the conductive cloth foam strip and it is difficult to maintain consistent product quality. Summary of the Invention

[0004] An object of the present invention is to overcome the deficiencies in the prior art and provide an automated conductive cloth wrapping and core-piercing machine and a method thereof.

[0005] The object of the present invention is achieved by the following technical solutions:

[0006] A conductive cloth wrapping and core-piercing machine includes:

[0007] A feeding mechanism, the feeding mechanism is provided with a forming groove, the feeding mechanism is used for placing the conductive cloth, and the conductive cloth is located above the forming groove so that the forming groove is used for forming the conductive cloth;

[0008] A core-piercing mechanism, the core-piercing mechanism includes a core-piercing base, a forming assembly and a closing assembly; the core-piercing base is provided with a foam hole, a connecting hole and a forming hole that are sequentially communicated; the forming end of the forming assembly movably penetrates through the connecting hole, the forming hole and the foam hole, and the end of the forming end of the forming assembly can respectively move into the forming hole and the foam hole; the feeding mechanism is used to move the conductive cloth into the forming hole, so that the forming end of the forming assembly is located in the forming groove, so that part of the conductive cloth enters the forming groove and both sides of the conductive cloth warp out from the forming hole; the power output end of the closing assembly is movably connected to the core-piercing base, and the power output end of the closing assembly is arranged on both sides of the forming hole, and the power output end of the closing assembly is used to push and close the warped sides of the conductive cloth, so that the conductive cloth forms a tubular structure; and

[0009] A handling mechanism, which is used to move the foam strip into the foam hole. The forming end of the forming assembly is used to push the foam strip through the connection hole and into the forming hole, so that the foam strip is threaded through the conductive cloth.

[0010] In one embodiment, the conductive cloth wrapping and core-piercing machine further includes a hot pressing mechanism, which is disposed opposite to the closing assembly, and the hot pressing mechanism is used to heat the closing assembly.

[0011] In one embodiment, the hot pressing mechanism includes a hot pressing driving component and a heating component. The power output end of the hot pressing driving component is connected to the heating component. The power output end of the hot pressing driving component is used to drive the heating component to move. The heating component is disposed opposite to the closing assembly, and the heating component is used to heat the closing assembly.

[0012] In one embodiment, one end of the heating component away from the closing assembly is movably connected to the power output end of the hot pressing driving component. The hot pressing mechanism further includes an elastic component, and the elastic component is disposed between the hot pressing driving component and the heating component.

[0013] In one embodiment, the forming assembly includes a forming driving member and a forming member. The power output end of the forming driving member is fixedly connected to the forming member. The forming driving member is used to drive the forming member to movably penetrate through the forming hole and the foam hole.

[0014] In one embodiment, the forming assembly further includes a guiding member. One end of the guiding member is fixedly connected to the core-piercing base, and the other end of the guiding member is movably connected to the forming member.

[0015] In one embodiment, the feeding mechanism includes a feeding fixture and a feeding driving component. The forming groove is formed on the feeding fixture. The power output end of the feeding driving component is fixedly connected to the feeding fixture. The feeding driving component is used to drive the feeding fixture into the forming hole, so that the forming end of the forming assembly is located in the forming groove, so that a part of the conductive cloth enters the forming groove and both sides of the conductive cloth are warped from the forming hole.

[0016] In one embodiment, the conductive cloth wrapping and core-piercing machine further includes a rotating mechanism. The rotating mechanism includes a rotating driving component and a fixing table. The power output end of the rotating driving component is fixedly connected to the fixing table. The feeding mechanism is installed on the fixing table, and the feeding mechanism is arranged staggeredly with the power output end of the rotating driving component.

[0017] In one embodiment, the closing assembly includes two closing members and a closing driving member. Both of the two closing members are slidably connected to the core-piercing base. The two closing members are oppositely arranged on the core-piercing base, and the forming hole is located between the two closing members. The power output ends of the closing driving member are respectively fixedly connected to the two closing members. The closing driving member is used to drive the two closing members to approach or move away from each other, so that the closing members push and close the two sides where the conductive cloth warps out.

[0018] A method for wrapping a core with conductive cloth uses the conductive cloth core-piercing machine described in any of the above embodiments to thread the foam strip through the conductive cloth for preparing a conductive cloth foam strip. The method for wrapping a core with conductive cloth includes the following steps:

[0019] Control the forming end of the forming assembly to sequentially penetrate into the foam hole and the forming hole.

[0020] Move the conductive cloth to the forming hole through the feeding mechanism, and make the forming end of the forming assembly located in the forming groove, so that the conductive cloth enters the forming groove and the two sides of the conductive cloth warp out from the forming hole.

[0021] Push the two sides of the conductive cloth through the power output end of the closing assembly, so that the conductive cloth closes into a tubular structure.

[0022] Control the forming end of the forming assembly to sequentially leave the forming hole and the foam hole.

[0023] Move the foam strip to the foam hole through the handling mechanism.

[0024] Control the forming end of the forming assembly to penetrate into the foam hole again to push the foam strip into the forming hole, so that the foam strip is threaded through the conductive cloth.

[0025] Compared with the prior art, the present invention has at least the following advantages:

[0026] 1. The conductive cloth is fed into the forming hole through the feeding mechanism, the forming end of the forming assembly warps the two sides of the conductive cloth, then the conductive cloth is closed into a tubular structure through the closing assembly, the foam strip is placed in the foam hole through the handling mechanism, and then the foam strip is pushed into the forming hole by the forming end of the forming assembly, so as to obtain a conductive cloth foam strip. In this way, the whole process of processing the conductive cloth foam strip is completed by machinery, and continuous processing can be realized. Compared with manually making the conductive cloth foam strip, the processing efficiency of the conductive cloth foam strip is greatly improved.

[0027] 2. The conductive cloth is fed into the forming hole through the feeding mechanism, causing the forming ends of the forming components to lift the two sides of the conductive cloth. Then, the conductive cloth is folded into a tubular structure through the closing component. The foam strip is placed in the foam hole through the handling mechanism, and then the foam strip is pushed into the forming hole by the forming ends of the forming components, thereby obtaining the conductive cloth foam strip. In this way, the entire process of processing the conductive cloth foam strip is completed by machinery, with consistent actions each time and no need for manual intervention in the middle, avoiding human error factors and improving the quality stability of the conductive cloth foam strip. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] To more clearly illustrate the technical solutions of the embodiments of the present invention, the following will briefly introduce the drawings required for the embodiments. It should be understood that the following drawings only show some embodiments of the present invention and should not be regarded as limiting the scope. For those of ordinary skill in the art, without creative efforts, other related drawings can also be obtained based on these drawings.

[0029] Figure 1 Schematic structural diagram of a conductive cloth wrapping core-piercing machine in an embodiment;

[0030] Figure 2 For Figure 1 Partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0031] Figure 3 For Figure 1 Another partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0032] Figure 4 For Figure 1 Another partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0033] Figure 5 For Figure 1 Another partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0034] Figure 6 For Figure 5 Enlarged view of part A of the partial structure of the conductive cloth wrapping core-piercing machine shown;

[0035] Figure 7 For Figure 1 Another partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0036] Figure 8 For Figure 1 Another partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0037] Figure 9 For Figure 1 Another partial schematic diagram of the conductive cloth wrapping core-piercing machine shown;

[0038] Figure 10 For Figure 1 the enlarged view of part A of the core-through machine wrapped by the conductive cloth shown in the figure. Specific embodiments

[0039] To facilitate the understanding of the present invention, the present invention will be described more comprehensively below with reference to the relevant drawings. The preferred embodiments of the present invention are shown in the drawings. However, the present invention can be implemented in many different forms and is not limited to the embodiments described herein. On the contrary, these embodiments are provided to make the disclosure of the present invention more thorough and comprehensive.

[0040] It should be noted that when an element is referred to as being "fixed to" another element, it can be directly on the other element or there may also be a middle element. When an element is considered to be "connected" to another element, it can be directly connected to the other element or there may be a middle element at the same time. The terms "vertical", "horizontal", "left", "right" and similar expressions used herein are for illustrative purposes only and do not represent the only embodiments.

[0041] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the technical field to which the present invention belongs. The terms used in the specification of the present invention herein are only for the purpose of describing specific embodiments and are not intended to limit the present invention. The term "and / or" used herein includes any and all combinations of one or more of the related listed items.

[0042] The present application provides a core-through machine wrapped with conductive cloth. The core-through machine wrapped with conductive cloth includes a feeding mechanism, a core-through mechanism and a handling mechanism. The feeding mechanism is provided with a forming groove. The feeding mechanism is used to place the conductive cloth, and the conductive cloth is located above the forming groove so that the forming groove is used to form the conductive cloth.

[0043] The core-passing mechanism includes a core-passing base, a forming assembly, and a closing assembly. The core-passing base is provided with a foam hole, a connecting hole, and a forming hole that are sequentially connected. The forming end of the forming assembly is movably inserted into the connecting hole, the forming hole, and the foam hole, and the end of the forming end of the forming assembly can move into the forming hole and the foam hole respectively. The feeding mechanism is used to move the conductive cloth into the forming hole, so that the forming end of the forming assembly is located in the forming groove, so that part of the conductive cloth enters the forming groove and both sides of the conductive cloth protrude from the forming hole. The power output end of the closing assembly is movably connected to the core-passing base, and the power output end of the closing assembly is arranged on both sides of the forming hole. The power output end of the closing assembly is used to push and close the two protruding sides of the conductive cloth, so that the conductive cloth forms a tubular structure. The handling mechanism is used to move the foam strip into the foam hole, and the forming end of the forming assembly is used to push the foam strip into the forming hole through the connecting hole, so that the foam strip is inserted into the conductive cloth.

[0044] In the above-mentioned conductive cloth wrapping core-passing machine, the forming end of the forming assembly is inserted into the forming hole. The feeding mechanism moves into the forming hole, so that the forming end of the forming assembly is located in the forming groove, so that part of the conductive cloth enters the forming groove and both sides of the conductive cloth protrude from the forming hole. The power output end of the closing assembly pushes the two protruding sides of the conductive cloth, so that the conductive cloth is closed into a tubular structure. The forming end of the forming assembly leaves the forming hole. The handling mechanism sends the foam strip to the foam hole. The forming end of the forming assembly is inserted into the foam hole to push the foam strip through the connecting hole and then into the forming hole, so that the foam strip is inserted into the conductive cloth, thereby obtaining a conductive cloth foam strip.

[0045] That is, the conductive cloth is sent into the forming hole by the feeding mechanism, the forming end of the forming assembly lifts both sides of the conductive cloth, and then the conductive cloth is closed into a tubular structure by the closing assembly. The foam strip is placed in the foam hole by the handling mechanism, and then the forming end of the forming assembly pushes the foam strip into the forming hole, thereby obtaining a conductive cloth foam strip. In this way, the whole process of processing the conductive cloth foam strip is completed by machinery, and continuous processing can be achieved. Compared with manually making the conductive cloth foam strip, the processing efficiency of the conductive cloth foam strip is greatly improved. Moreover, the actions of each mechanical processing are consistent, and there is no need for manual intervention in the middle, avoiding human error factors and improving the quality stability of the conductive cloth foam strip.

[0046] Such as Figure 1 and Figure 2 As shown in Figure 3The feeding mechanism 100 is provided with a forming groove 100a, and the feeding mechanism 100 is used to place the conductive cloth, and the conductive cloth is located on the upper side of the forming groove 100a, so that the forming groove 100a is used to shape the conductive cloth.

[0047] like Figure 4 As shown, the core-threading mechanism 200 includes a core-threading base 210, a forming component 220 and a closing component 230. Figure 5 and Figure 6 As shown, the core base 210 is provided with a foam hole 210b, a connecting hole 210c and a forming hole 210a which are connected in sequence. The forming end of the forming component 220 is movably provided in the foam hole 210b, the connecting hole 210c and the forming hole 210a, and the end of the forming end of the forming component 220 can move into the forming hole 210a and the foam hole 210b respectively. The feeding mechanism 100 is used to move the conductive cloth into the forming hole 210a, so that the forming end of the forming component 220 is located in the forming groove 100a, so that the conductive cloth partially enters the forming groove 100a and the two sides of the conductive cloth are lifted up from the forming hole 210a. Figure 4 As shown, the power output end of the closing component 230 is movably connected to the core base 210, and the power output end of the closing component 230 is arranged on both sides of the forming hole 210a. The power output end of the closing component 230 is used to push and close the two sides of the conductive cloth that are tilted out, so that the conductive cloth forms a tubular structure. The transport mechanism 300 is used to move the foam strip 400 into the foam hole 210b, as shown in FIG. Figure 6 As shown, the forming end of the forming component 220 is used to push the foam strip 400 through the connecting hole 210c and then enter the forming hole 210a, so that the foam strip 400 is inserted into the conductive cloth.

[0048] In this embodiment, the feeding mechanism 100 is used to convey and shape the conductive cloth. The conductive cloth is placed on the feeding mechanism 100, and the conductive cloth is located on the upper side of the forming groove 100a. Specifically, the two sides of the conductive cloth are supported by the feeding mechanism 100, and the middle of the conductive cloth closes the top of the forming groove 100a. The forming hole 210a is connected to the foam hole 210b through the connecting hole 210c. The forming hole 210a is adapted to the feeding mechanism 100 and the conductive cloth at the same time. The foam hole 210b and the connecting hole 210c are both adapted to the foam strip 400. The forming hole 210a, the foam hole 210b and the connecting hole 210c are arranged on the same straight line, and the three are parallel to the straight line. The forming end of the forming component 220 and the forming groove 100a jointly form the conductive cloth. When forming the conductive cloth, the forming end of the forming component 220 sequentially penetrates the foam hole 210b, the connecting hole 210c and the forming hole 210a, so that the forming end of the forming component 220 is located in the foam hole 210b, the connecting hole 210c and the forming hole 210a, and the feeding mechanism 100 moves to the forming hole 210a, so that the feeding mechanism 100 covers the forming end of the forming component 220, that is, the forming end of the forming component 220 is located in the forming groove 100a, so that the middle of the conductive cloth enters the forming groove 100a, and the two sides of the conductive cloth are lifted up from the forming hole 210a.

[0049] like Figure 4 As shown, the power output end of the closing component 230 is used to push and close the two raised sides of the conductive cloth. When the power output end of the closing component 230 is closed, the inner side of the power output end of the closing component 230 respectively contacts the two sides of the conductive cloth, so that the two sides of the conductive cloth are bent inward and closed into a tubular structure. Figure 6 As shown, the forming end of the forming component 220 is also used to push the foam strip 400 into the tubular conductive cloth. Specifically, after the forming end of the forming component 220 leaves the forming hole 210a and the foam hole 210a, the transport mechanism 300 moves the foam strip 400 into the foam hole 210b, and the forming end of the forming component 220 moves to the foam hole 210b to push the foam strip 400 into the forming hole 210a through the connecting hole 210c, so that the foam strip 400 is inserted into the tubular conductive cloth.

[0050] In the above-mentioned conductive cloth wrapping core-threading machine 10, the forming end of the forming component 220 is inserted into the forming hole 210a, and the feeding mechanism 100 moves into the forming hole 210a, so that the forming end of the forming component 220 is located in the forming groove 100a, so that the conductive cloth partially enters the forming groove 100a and the two sides of the conductive cloth are lifted up from the forming hole 210a, and the power output end of the closing component 230 pushes the lifted two sides of the conductive cloth, so that the conductive cloth is closed into a tubular structure, and the forming end of the forming component 220 leaves the forming hole 210a, and the conveying mechanism 300 sends the foam strip 400 to the foam hole 210b, and the forming end of the forming component 220 is inserted into the foam hole 210b to push the foam strip 400 in the foam hole 210b into the forming hole 210a, so that the foam strip 400 is inserted into the conductive cloth, thereby obtaining the conductive cloth foam strip 400.

[0051] That is, the conductive cloth is first fed into the forming hole 210a by the feeding mechanism 100, so that the forming end of the forming component 220 lifts up the two sides of the conductive cloth, and then the conductive cloth is closed into a tubular structure by the closing component 230, and then the foam strip 400 is placed in the foam hole 210b by the conveying mechanism 300, and finally the foam strip 400 is pushed into the forming hole 210a by the forming end of the forming component 220, so as to obtain the conductive cloth foam strip 400. In this way, the whole process of processing the conductive cloth foam strip 400 is completed by machinery, and uninterrupted processing can be realized. Compared with the manual production of the conductive cloth foam strip 400, the processing efficiency of the conductive cloth foam strip 400 is greatly improved. Moreover, the mechanical processing has the same action each time, and no human intervention is required in the middle, which avoids the factor of human error and improves the quality stability of the conductive cloth foam strip 400.

[0052] In one embodiment, the working process of the conductive cloth wrapping core-threading machine 10 is as follows: first, the forming end of the forming component 220 is inserted into the connecting hole 210c, and the forming end of the forming component 220 moves to the forming hole 210a; then the feeding mechanism 100 moves into the forming hole 210a, so that the forming groove 100a of the feeding mechanism 100 corresponds to the forming end of the forming component 220, so that the conductive cloth partially enters the forming groove 100a and the two sides of the conductive cloth are lifted from the forming hole 210a; then the power output end of the closing component 230 pushes the conductive cloth to the forming hole 210a. The two sides of the conductive cloth are raised, so that the conductive cloth is closed into a tubular structure; then the forming end of the forming component 220 leaves the forming hole 210a; then the conveying mechanism 300 sends the foam strip 400 to the foam hole 210b; finally, the forming end of the forming component 220 is penetrated into the foam hole 210b to push the foam strip 400 in the foam hole 210b through the connecting hole 210c and enter the forming hole 210a, so that the foam strip 400 is penetrated into the conductive cloth, that is, the conductive cloth wraps the foam strip 400, thereby forming a conductive cloth foam strip 400.

[0053] likeFigure 2 As shown, in one embodiment, the conductive cloth wrapping core-piercing machine 10 further includes a hot pressing mechanism 500. The hot pressing mechanism 500 is disposed opposite to the closing assembly 230, and the hot pressing mechanism 500 is used to heat the closing assembly 230. In this embodiment, after the hot pressing mechanism 500 is powered on, it generates heat. When the closing assembly 230 pushes the conductive cloth to close, the heat of the hot pressing mechanism 500 is transferred to the conductive cloth through the closing assembly 230. Since the conductive cloth can be quickly shaped after being heated, the conductive cloth is quickly formed into a tubular structure after being heated, improving the forming efficiency of the conductive cloth. It can be understood that the hot pressing mechanism 500 can be a resistance hot pressing mechanism, so that the hot pressing mechanism 500 generates heat when powered on.

[0054] Further, as Figure 7 shown, the hot pressing mechanism 500 includes a hot pressing driving assembly 510 and a heating assembly 520. The power output end of the hot pressing driving assembly 510 is connected to the heating assembly 520. The power output end of the hot pressing driving assembly 510 is used to drive the heating assembly 520 to move. The heating assembly 520 is disposed opposite to the closing assembly 230, and the heating assembly 520 is used to heat the closing assembly 230. In this embodiment, after the heating assembly 520 is powered on, it generates high temperature. The hot pressing driving assembly 510 drives the heating assembly 520 to contact the closing assembly 230, so that the heat generated by the heating assembly 520 is transferred to the closed conductive cloth through the closing assembly 230, thereby shaping the conductive cloth after heating. When the conductive cloth is heated for a certain time, the hot pressing driving assembly 510 drives the heating assembly 520 to separate from the closing assembly 230. In this way, the hot pressing driving assembly 510 replaces manual driving to make the heating assembly 520 contact or separate from the closing assembly 230, improving the working efficiency of the heating assembly 520. In addition, since the hot pressing driving assembly 510 drives the heating assembly 520 to separate from the closing assembly 230 after the conductive cloth is heated for a certain time, it avoids the conductive cloth from being burned out due to overheating for too long, improving the qualified rate of the finished product of the conductive cloth foam strip 400.

[0055] Even further, please continue to refer to Figure 7 , one end of the heating assembly 520 away from the closing assembly 230 is movably connected to the power output end of the hot pressing driving assembly 510. The hot pressing mechanism 500 further includes an elastic component 530, and the elastic component 530 is disposed between the hot pressing driving assembly 510 and the heating assembly 520.

[0056] In this embodiment, the heating component 520 further includes a fixing plate 540. The power output end of the hot pressing driving component 510 is fixedly connected to the fixing plate 540. One end of the heating component 520 away from the closing component 230 is movably disposed through the fixing plate 540, so that one end of the heating component 520 away from the closing component 230 is movably connected to the power output end of the hot pressing driving component 510. The elastic component 530 is used to relieve the impact force when the heating component 520 contacts the closing component 230. The elastic component 530 is sleeved on one end of the heating component 520 away from the closing component 230. When the hot pressing driving component 510 drives the heating component 520 to contact the closing component 520, if the power output end of the hot pressing driving component 510 continues to move in the direction of the closing component 230 at this time, the heating component 520 has a tendency to rebound due to the impact with the closing component 230. However, at this time, both ends of the elastic component 530 are respectively abutted against the heating component 520, and the elastic component 530 pushes the heating component 520 to continuously contact the closing component 230, that is, at this time, the elastic force of the elastic component 530 acting on the heating component 520 is equal to the rebound force of the heating component 520, that is, at this time, the elastic component 530 relieves the rebound force of the heating component 520, avoiding the heating component 520 from separating immediately after contacting the closing component 230, so that the heating component 520 can continuously contact the closing component 230, and further enabling the heating component 520 to continuously heat the conductive cloth, improving the heating efficiency of the hot pressing mechanism 500.

[0057] In one of the embodiments, the core-piercing base 210 includes a base body and a foam placing member. The foam placing member is detachably connected to the base body. The forming hole 210a is formed in the base body, and the foam hole 210b is formed in the foam placing member. The forming hole 210a and the foam hole 210b are arranged at intervals and communicate with each other. In this embodiment, the foam placing member is detachably connected to the base body, so that the foam placing member can be replaced. When the size of the foam required for production changes, the foam placing member can be replaced with a foam placing member adapted to the new foam, so that the core-piercing base 210 can be adapted to foams of different sizes, that is, the core-piercing base 210 can be used to place foams of different sizes, improving the application range of the core-piercing base 210.

[0058] As Figure 5 and Figure 6 shown, in one of the embodiments, the forming component 220 includes a forming driving member and a forming member 221. The power output end of the forming driving member is fixedly connected to the forming member 221. The forming driving member is used to drive the forming member 221 to movably pass through the forming hole 210a and the foam hole 210b.

[0059] In this embodiment, the forming member 221 is the forming end of the forming assembly 220. The forming member 221 is a rod. The forming driving member is installed on the core-through base 210. The power output end of the forming driving member is fixedly connected to one end of the forming member 221. The power output end of the forming driving member drives the forming member 221 to movably pass through the connection hole 210c, and enables the forming member 221 to move to the forming hole 210a and the foam hole 210b. Before the feeding mechanism 100 enters the forming hole 210a, the forming driving member drives the forming member 221 to slide through the connection hole 210c, so that the forming member 221 moves into the foam hole 210b and the forming hole 210a, and the forming member 221 is used for forming the conductive cloth. Before the handling mechanism 300 moves the foam strip 400 into the foam hole 210b, the forming driving member drives the forming member 221 to move, so that the forming member 221 leaves the foam hole 210b and the forming hole 210a. After the handling mechanism 300 moves the foam into the foam hole 210b, the forming driving member drives the forming member 221 to move, so that the forming member 221 penetrates into the foam hole 210b to push the foam strip 400 in the foam hole 210b to the forming hole 210a, so that the foam strip 400 passes through the connection hole 210c and then penetrates into the inside of the conductive cloth, thereby obtaining the conductive cloth foam strip 400.

[0060] In this way, the power output end of the forming driving member drives the forming member 221, so that the forming member 221 is used for forming the conductive cloth, and the forming member 221 is also used to push the foam strip 400 through the connection hole 210c and then into the inside of the conductive cloth. Thus, the forming member 221 has two functions, namely forming the conductive cloth and pushing the foam strip 400 to the conductive cloth. That is, one structure realizes two functions, making the structure of the forming assembly 220 compact.

[0061] Further, as Figure 5As shown, the forming assembly 220 further includes a guide member 222, one end of which is fixedly connected to the core-penetrating base 210, and the other end of which is movably connected to the forming member 221. In this embodiment, the forming assembly 220 includes a forming drive member, a forming member 221, a guide member 222 and a fixing member 223, the power output end of the forming drive member is fixedly connected to the forming member 221 through the fixing member 223, that is, the fixing member 223 is fixedly connected to the power output end of the forming drive member and the forming member 221, one end of the guide member 222 is fixedly connected to the core-penetrating base 210, and the other end of the guide member 222 is movably connected to the forming member 221 through the fixing member 223, that is, the end of the guide member 222 away from the core-penetrating base 210 is movably arranged on the fixing member 223. In this way, when the forming piece 221 moves through the forming hole 210a and the foam hole 210b, the guide piece 222 guides the movement of the forming piece 221, so that the forming piece 221 moves through the forming hole 210a and the foam hole 210b along the guide piece 222, thereby improving the movement accuracy of the forming piece 221 and allowing the forming piece 221 to accurately enter the forming hole 210a and the foam hole 210b.

[0062] like Figure 3 As shown, in one embodiment, the feeding mechanism 100 includes a feeding fixture 110 and a feeding drive assembly 120, the forming groove 100a is opened on the feeding fixture 110, the power output end of the feeding drive assembly 120 is fixedly connected to the feeding fixture 110, and the feeding drive assembly 120 is used to drive the feeding fixture 110 to enter the forming hole 210a, so that the forming end of the forming assembly 220 is located in the forming groove 100a, so that the conductive cloth partially enters the forming groove 100a and the two sides of the conductive cloth are lifted from the forming hole 210a. In this embodiment, the forming groove 100a is opened on the feeding fixture 110, and the conductive cloth is placed on the feeding fixture 110, so that the conductive cloth seals the top of the forming groove 100a, and the two sides of the conductive cloth are supported by the feeding fixture 110. The feeding jig 110 is adapted to the forming hole 210a so that the feeding jig 110 can enter the forming hole 210a. When feeding, the feeding drive assembly 120 drives the feeding jig 110 to enter the forming hole 210a so that the feeding jig 110 covers the forming part 221, that is, the forming part 221 is located in the forming groove 100a, so that the middle of the conductive cloth enters the forming groove 100a, and the two sides of the conductive cloth are tilted out from the upper side of the forming hole 210a. In this way, the feeding drive assembly 120 drives the feeding jig 110 to feed and causes the conductive cloth to tilt out from the forming hole 210a, and there is no need to manually send the conductive cloth into the forming hole 210a for forming, which improves the feeding efficiency and reduces the labor intensity of workers.

[0063] In one of the embodiments, the feeding mechanism 100 is provided with a material placing groove. Both the material placing groove and the forming groove 100a are provided on one side of the feeding mechanism 100. The depth of the material placing groove is lower than that of the forming groove 100a. The material placing groove is used for placing the conductive cloth. In this embodiment, both the forming groove 100a and the material placing groove are provided on one side of the feeding jig 110. The depth of the forming groove 100a is higher than that of the material placing groove. The forming groove 100a is located in the middle of the material placing groove. After the conductive cloth is placed in the material placing groove, the conductive cloth closes the forming groove 100a. During the feeding process of the feeding mechanism 100, that is, after the conductive cloth is placed in the material placing groove and before the conductive cloth warps out from the forming hole 210a, the material placing groove restricts the movement of the conductive cloth parallel to the plane of the feeding mechanism 100. In this way, when the feeding mechanism 100 feeds, the groove wall of the material placing groove restricts the movement of the conductive cloth parallel to the plane of the feeding mechanism 100, avoiding the slippage of the conductive cloth parallel to the plane of the feeding mechanism 100 during feeding.

[0064] Furthermore, adsorption holes are provided in the material placing groove. The adsorption holes are communicated with an external vacuum pump. In this embodiment, the adsorption holes are uniformly distributed on the material placing groove. After the conductive cloth is placed in the material placing groove, the vacuum pump evacuates the air in the adsorption holes, making the adsorption holes form a negative pressure and adsorbing the conductive cloth. During the feeding process of the feeding mechanism 100, that is, after the conductive cloth is placed in the material placing groove and before the conductive cloth warps out from the forming hole 210a, the adsorption holes adsorb the conductive cloth, thereby restricting the movement of the conductive cloth perpendicular to the bottom surface of the material placing groove. In this way, when the feeding mechanism 100 feeds, the movement of the conductive cloth parallel to the plane of the feeding mechanism 100 and the movement perpendicular to the bottom surface of the material placing groove are restricted, and all movements of the conductive cloth are restricted, avoiding the dropping of the conductive cloth during feeding.

[0065] Please continue to refer to Figure 3In one embodiment, the conductive cloth wrapping core-threading machine 10 further includes a rotating mechanism 600, the rotating mechanism 600 includes a rotating drive assembly 610 and a fixed platform 620, the power output end of the rotating drive assembly 610 is fixedly connected to the fixed platform 620, the feeding mechanism 100 is installed on the fixed platform 620, and the feeding mechanism 100 and the power output end of the rotating drive assembly 610 are staggered. In this embodiment, the power output end of the rotating drive assembly 610 is fixedly connected to the center of the fixed platform 620, and the feeding mechanism 100 is arranged at the end of the fixed platform 620. Specifically, the feeding drive assembly 120 is installed at the end of the fixed platform 620, so that the feeding mechanism 100 and the power output end of the rotating drive assembly 610 are staggered, so that when the rotating drive assembly 610 drives the fixed platform 620 to rotate, the feeding mechanism 100 rotates around the power output shaft of the rotating drive assembly 610. When the feeding mechanism 100 needs to feed material, that is, when the feeding mechanism 100 needs to move the conductive cloth into the forming hole 210a for forming, the rotary drive component 610 drives the feeding mechanism 100 to rotate to the position corresponding to the forming hole 210a, that is, directly below the forming hole 210a; when the conductive cloth needs to be placed on the feeding mechanism 100, the rotary drive component 610 drives the feeding mechanism 100 to rotate to a position staggered from the core-threading mechanism 200, so that when the conductive cloth is placed on the feeding mechanism 100, the core-threading mechanism 200 will not interfere with the action of placing the conductive cloth, thereby facilitating the placement of the conductive cloth.

[0066] like Figure 4 As shown, in one embodiment, the closing assembly 230 includes a closing member 231 and a closing driving member 232. The number of the closing members is two. The two closing members 231 are both slidably connected to the core-through base 210. The two closing members 231 are relatively arranged on the core-through base 210, and the forming hole 210a is located between the two closing members 231. The power output end of the closing driving member 232 is fixedly connected to the two closing members 231 respectively, and the closing driving member 232 is used to drive the two closing members 231 to move closer to or away from each other, so that the closing member 231 pushes and closes the two sides of the conductive cloth that are tilted out. In this embodiment, the power output end of the closing driving member 232 is used to drive the two closing members 231 to move closer to or away from each other, so that the two closing members 231 push the conductive cloth that is tilted out from the forming hole 210a to close into a tubular structure, so that the closing of the conductive cloth does not require manual participation, thereby improving the closing efficiency of the conductive cloth.

[0067] For further information, please refer to Figure 4, a bevel 231a is provided on a part of the closing member 231 close to the forming hole 210a, and the bevel 231a faces the forming hole 210a. In this embodiment, two closing members 231 are slidably disposed on the surface of the core-piercing base 210, and the forming hole 210a is located between the two closing members 231. After the closing members 231 are closed, the part of the closing member 231 close to the forming hole 210a pushes the conductive cloth protruding from the forming hole 210a to bend inward, so that the conductive cloth is closed into a tubular structure. And a bevel 231a is provided on the part of the closing member 231 close to the forming hole 210a, which thins the thickness of the edge where the closing member 231 contacts the conductive cloth, so that the bending point of the conductive cloth is located at the connection between the closing member 231 and the core-piercing base 210, thereby making the shape of the conductive cloth consistent after each bending, that is, making the shape of the conductive cloth consistent after each closing, and improving the quality stability of the conductive cloth after bending.

[0068] As Figure 8 shown, in one embodiment, the handling mechanism 300 includes a handling frame 310, a handling drive assembly 320, and a suction member 330. The handling drive assembly 320 is installed on the handling frame 310. The suction member 330 is used to adsorb the foam strip 400. The suction member 330 is installed at the power output end of the handling drive assembly 320, and the power output end of the handling drive assembly 320 is used to drive the suction member 330 to move relative to the foam hole 210b. In this embodiment, the suction member 330 is used to adsorb the foam. The outer shape of the end of the suction member 330 that adsorbs the foam is adapted to the foam strip 400. The suction member 330 is installed at the power output end of the handling drive assembly 320. The handling drive assembly 320 drives the suction member 330 to adsorb the foam strip 400 into the foam hole 210b. In this way, during the process of placing the foam strip 400 into the foam hole 210b, the handling drive assembly 320 replaces the human hand to place the foam strip 400 into the foam hole 210b, reducing the labor intensity of the workers and improving the efficiency of placing the foam strip 400.

[0069] Furthermore, please continue to refer to Figure 8 , the handling drive assembly 320 includes a first drive member 321 and a second drive member 322. The first drive member 321 is installed on the handling frame 310. The second drive member 322 is installed at the power output end of the first drive member 321. The suction member 330 is installed at the power output end of the second drive member 322. The first drive member 321 is used to drive the second drive member 322 to move relative to the foam hole 210b. The second drive member 322 is used to drive the suction member 330 to move relative to the foam hole 210b, and the driving directions of the first drive member 321 and the second drive member 322 form an angle.

[0070] In this embodiment, the handling rack 310 is a gantry. The first driving member 321 is installed on the handling rack 310. The second driving member 322 is installed at the power output end of the first driving member 321. The suction member 330 is installed at the power output end of the second driving member 322. The first driving member 321 drives the second driving member 322 to move horizontally, so that the suction member 330 moves horizontally. The second driving member 322 drives the suction member 330 to move vertically. The driving direction of the first driving member 321 and the driving direction of the second driving member 322 form an angle of 90 degrees. By driving the suction member 330 to move in one direction through the first driving member 321 and driving the suction member 330 to move in another direction through the second driving member 322, the suction member 330 can move in multiple directions, making the movement of the suction member 330 flexible and facilitating the handling mechanism 300 to move the foam. It can be understood that the first driving member 321 and the second driving member 322 can be one of a cylinder, a hydraulic cylinder and a lead screw slide table.

[0071] Furthermore, please continue to refer to Figure 8 , the second driving member 322 is provided with a slider 322a, and the handling rack 310 is provided with a guide rail 310a. The slider 322a is slidably connected to the guide rail 310a, so that the power output end of the first driving member 321 drives the second driving member 322 to slide along the guide rail 310a, avoiding the shaking of the second driving member 322 during movement, improving the movement stability of the second driving member 322, thereby improving the movement stability of the suction member 330, and further ensuring the accuracy of the suction member 330 to adsorb the foam into the foam hole 210b.

[0072] Please refer to Figure 1 , in one of the embodiments, the conductive cloth wrapping core piercing machine 10 further includes an auxiliary foam feeding mechanism 700. The auxiliary foam feeding mechanism 700 includes a vibrating disk 710 and a material blocking mechanism 720. The output end of the vibrating disk 710 is communicated with the material blocking mechanism 720. Specifically, as Figure 9 shown, the material blocking mechanism 720 includes a material blocking fixture 721 and a clamping assembly 722. The material blocking fixture 721 is provided with a stay groove 721a, and the stay groove 721a is adapted to the foam strip 400. At the same time, refer to Figure 10, one end of the retention groove 721a communicates with the output end of the vibrating bowl 710. The clamping assembly 722 is used to clamp the material blocking fixture 721. The clamping assembly 722 is provided with a material blocking portion 7221, and the material blocking portion 7221 is located at one end of the retention groove 721a away from the output end of the vibrating bowl. The vibrating bowl vibrates to make the foam strips 400 neatly arranged and move on the conveying line of the vibrating bowl, and at least one foam strip 400 enters the retention groove 721a. When the foam strip 400 contacts the material blocking portion 7221, the foam strip 400 stops moving; when the handling mechanism 300 takes out the foam strip 400 in the retention groove 721a, another foam strip 400 enters the retention groove 721a due to vibration. In this way, there are continuously foam strips 400 staying in the retention groove 721a, and the handling mechanism 300 can continuously take out the foam strips 400 from the retention groove 721a, so that the handling mechanism 300 can continuously take out the foam strips 400, improving the taking-out efficiency of the handling mechanism 300.

[0073] It can be understood that the formed part 221 passes through the forming hole 210a and the foam hole 210b respectively. The forming hole 210a is adapted to the conductive cloth, and the foam hole 210b is adapted to the foam strip 400. Generally, the conductive cloth and the foam strip 400 are relatively long. Therefore, in order to enable the formed part 221 to pass through the forming hole 210a and the foam hole 210b better, the length of the formed part 221 is relatively long. However, during the process of the formed part 221 passing through the forming hole 210a and the foam hole 210b, the friction between the formed part 221 and the core-piercing base 210 is relatively large, resulting in poor movement smoothness of the formed part 221. If the formed part 221 moves at a high speed at this time, the formed part 221 is extremely easy to break.

[0074] In order to improve the smoothness of the movement of the forming part 221, that is, in order to reduce the friction coefficient between the forming part 221 and the core-passing base 210, in one embodiment, the core-passing mechanism 200 further includes a first linear bearing and a second linear bearing. The core-passing base 210 includes a connected base main body and a forming part. The connection hole 210c and the foam hole 210b are both opened in the base main body, and the forming hole 210a is opened in the forming part. The foam hole 210b communicates with the forming hole 210a through the connection hole 210c. The two closing parts 231 are slidably connected to the forming part. The first linear bearing is arranged on the side of the base main body away from the forming part, and the inner ring of the first linear bearing communicates with the forming hole 210a, and the inner ring of the first linear bearing is adapted to the forming part 221. The second linear bearing is located in the forming hole, and the inner ring of the second linear bearing communicates with the connection hole 210c. The inner ring of the second linear shaft is adapted to the forming part 221, so that the first linear bearing, the forming hole 210a, the connection hole 210c, the foam hole 210b and the second linear bearing are communicated in sequence, and the forming part 221 is sequentially passed through the first linear bearing, the foam hole 210b, the connection hole 210c, the forming hole 210a and the second linear bearing. When the forming part 221 is passed through the forming hole 210a and the foam hole 210b, the forming part 221 is in direct contact with the first linear bearing and the second linear bearing. Since the dynamic friction coefficients of the first linear bearing and the second linear bearing are extremely low, the friction resistance received by the forming part 221 when passing through the forming hole 210a and the foam hole 210b is small, thereby improving the smoothness of the movement of the forming part 221, avoiding the problem of breakage of the forming part 221 during rapid movement, and improving the service life of the forming part 221.

[0075] To enable each closing part 231 to be better slidably connected in the sliding groove, the forming part is further provided with a sliding groove communicating with the forming hole 210a, and the two closing parts 231 are both slidably connected in the sliding groove. Further, the two closing parts 231 are respectively a first closing part and a second closing part. First guiding and supporting blocks and second guiding and supporting blocks are provided on the inner wall of the forming hole 210a, and the first guiding and supporting block and the second guiding and supporting block are arranged opposite to each other. The first guiding and supporting block is used to support the first closing part and guide the first closing part to slide relative to the sliding groove, and the first guiding and supporting block is slidably connected to the first closing part, so that the first closing part can slide reliably in the sliding groove. The second guiding and supporting block is used to support and guide the second closing part to slide relative to the sliding groove, and the second guiding and supporting block is slidably connected to the second closing part, so that the second closing part can slide reliably in the sliding groove. In this embodiment, the supporting surfaces of the first guiding and supporting block and the second guiding and supporting block are both in the same plane as the bottom surface of the sliding groove, so that the first guiding and supporting block and the bottom surface of the sliding groove jointly support the first closing part, and the second guiding and supporting block and the bottom surface of the sliding groove jointly support the second closing part.

[0076] Further, the first guiding and supporting block is provided with a first guiding groove. A first connecting block protrudes from a surface of the first closing member adjacent to the first guiding and supporting block. The first connecting block is located in the first guiding groove and is slidably connected to the first guiding and supporting block. Further, the second guiding and supporting block is provided with a second guiding groove. A second connecting block protrudes from a surface of the second closing member adjacent to the second guiding and supporting block. The second connecting block is located in the second guiding groove and is slidably connected to the second guiding and supporting block. It can be understood that during the reciprocating sliding of the first closing member and the second closing member in the sliding groove, the inner wall of the sliding groove is subject to a certain degree of wear. After repeated use, the sliding precision of both the first closing member and the second closing member is relatively low, thereby reducing the precision of the formed shape of the conductive cloth. To improve the precision of the formed shape of the conductive cloth, further, a wear-resistant layer is provided on the inner wall of the sliding groove, so that the wear generated by the first closing member and the second closing member on the sliding groove during the reciprocating sliding in the sliding groove is small, thereby improving the precision of the formed shape of the conductive cloth.

[0077] During feeding, the feeding driving assembly 120 drives the feeding jig 110 into the forming hole 210a, so that the feeding jig 110 covers the formed part 221, that is, the formed part 221 is located in the forming groove 100a. It can be understood that if there is an error in the movement of the feeding driving assembly 120 driving the feeding jig 110, the bottom surface of the forming groove 100a on the feeding jig 110 may collide violently with the formed part 221, which may cause cracks or breakage of the formed part 221.

[0078] To solve the above problems and prevent the formed part 221 from being impacted, in one embodiment, the feeding mechanism 100 further includes an anti-collision device. The anti-collision device is elastic. The power output end of the feeding driving assembly 120 is connected to the feeding jig 110 through the anti-collision device. Specifically, the anti-collision device is fixedly connected to the power output end of the feeding driving assembly 120 and the feeding jig 110 respectively. When the bottom surface of the forming groove 100a impacts the formed part 221, the anti-collision device immediately contracts, preventing the bottom surface of the forming groove 100a from colliding violently with the formed part 221, thereby avoiding the problem of breakage of the formed part 221. Further, the anti-collision device includes an anti-collision base, an anti-collision support plate, and a flexible component. The anti-collision base is installed on the feeding driving assembly 120. The anti-collision support plate moves up and down relative to the anti-collision base. The feeding jig 110 is installed on the anti-collision support plate. The flexible component is installed between the anti-collision base and the anti-collision support plate. When the bottom surface of the forming groove 100a impacts the formed part 221, the anti-collision support plate compresses the flexible component to prevent the bottom surface of the forming groove 100a from colliding violently with the formed part 221, thereby avoiding the problem of breakage of the formed part 221.

[0079] Further, the anti-collision device further includes a guide post and a guide sleeve. One end of the guide post is fixedly connected to the anti-collision base, and the guide sleeve is fixedly connected to the anti-collision support plate. The guide post is slidably connected to the inside of the guide sleeve to guide the movement of the anti-collision support plate, thereby guiding the loading fixture 110 and avoiding the problem that the loading fixture 110 deviates from the preset position.

[0080] Furthermore, the guide sleeve includes a guide body and a limiting portion. The guide body is provided with a guide hole. One end of the guiding portion is fixedly connected to the anti-collision support plate, and the limiting portion is fixedly wound around one end of the guiding portion close to the anti-collision base. The guide post includes a guide body and a sliding portion. The outer diameter of the sliding portion is larger than that of the guide body. One end of the sliding portion is fixedly connected to the guide body, and the sliding portion is located in the guide hole. The limiting portion is used to block the sliding portion to prevent the sliding portion from sliding out of the guide hole, and the other end of the guide body is fixedly connected to the anti-collision base. When the bottom surface of the forming groove 100a impacts the formed part 221, the limiting portion limits the movement range of the sliding portion, preventing the sliding portion from sliding out of the guide hole, thereby ensuring that the guide post and the guide sleeve guide the movement of the anti-collision support plate, and further avoiding the problem that the loading fixture 110 deviates from the preset position.

[0081] Further, the flexible component includes a first blocking member, a first spring, a first sliding member, and a first rotating rod. On the surface of the anti-collision base adjacent to the anti-collision support plate, there are provided a first flexible chute and a second flexible chute arranged at intervals. The first blocking member is fixedly connected to the surface of the anti-collision base adjacent to the anti-collision support plate. One end of the first spring is fixedly connected to the surface of the first blocking member adjacent to the first flexible chute. The first sliding member is fixedly connected to the other end of the first spring, and the first sliding member is slidably connected to the first flexible chute. The first sliding member is provided with a clutch hole. The two ends of the first rotating rod are respectively rotatably connected to the first sliding member and the anti-collision support plate. Furthermore, the flexible component further includes a second blocking member, a second spring, a second sliding member, and a second rotating rod. The second blocking member is fixedly connected to the surface of the anti-collision base adjacent to the anti-collision support plate, and both the first flexible chute and the second flexible chute are located between the first blocking member and the second blocking member. One end of the second spring is fixedly connected to the surface of the second blocking member adjacent to the second flexible chute. The second sliding member includes a second sliding body and a sliding rod. The second sliding body is fixedly connected to the other end of the second spring, and the second sliding body is located in the second flexible chute. One end of the sliding rod is fixedly connected to the second sliding body, and the other end of the sliding rod is slidably inserted into the clutch hole of the first sliding member. The two ends of the second rotating rod are respectively rotatably connected to the anti-collision support plate and the second sliding body, and the rotating ends of the first rotating rod and the second rotating rod with respect to the anti-collision support plate are always located between the first sliding member and the second sliding member.

[0082] In this embodiment, when the bottom surface of the forming groove 100a impacts the formed part 221, the anti-collision support plate and the anti-collision base approach each other, causing the first rotating rod to rotate, so as to push the first sliding member to slide in the first flexible chute and compress the first spring; at the same time, the anti-collision support plate causes the second rotating rod to rotate, and the second rotating rod pushes the second sliding member to slide in the second flexible chute and compress the second spring, and the first sliding body slides in the clutch hole; at the same time, the guide sleeve and the guide post slide relative to each other. When the bottom surface of the forming groove 100a separates from the formed part 221, both the first spring and the second spring elongate, so as to push the first sliding member and the second sliding member to close, thereby causing the first rotating rod and the second rod to push the anti-collision support member to separate from the anti-collision base, so that the anti-collision support member is reset. That is, when the bottom surface of the forming groove 100a impacts the formed part 221, the anti-collision support frame drives the feeding jig 110 to approach the anti-collision base, buffering the impact on the formed part 221; after the bottom surface of the forming groove 100a separates from the formed part 221, the anti-collision support member and the feeding jig 110 are automatically reset, so that the anti-collision device can be repeatedly used for buffering, avoiding the feeding jig 110 from breaking the formed part 221.

[0083] It can be understood that when the closing driving member 232 drives the closing member 231 to push the conductive cloth to close, the closing member 231 abuts against both sides of the conductive cloth, and there is relative sliding between the closing member 231 and the conductive cloth, making it inevitable for the closing member 231 to wear the conductive cloth, thereby damaging the service performance of the conductive cloth. In order to avoid abrasion of the conductive cloth, in one embodiment, each closing member 231 includes a closing member body and a soft silicone pad, and the soft silicone pad is coated on the contact end of the closing member body. When the closing driving member 232 drives the closing member 231 to close, the soft silicone pad pushes the conductive cloth to close. Since the material of the soft silicone pad is soft, the soft silicone pad will not damage the surface of the conductive cloth when pushing the conductive cloth, avoiding the closing member 231 from damaging the service performance of the conductive cloth, thereby improving the quality of the conductive cloth foam strip 400.

[0084] However, when the soft silicone pad abuts against the conductive cloth, the friction between the soft silicone pad and the conductive cloth is large, resulting in a problem of large wear of the soft silicone pad. For this reason, in one embodiment, the closing member body of each closing member 231 includes a closing block and a soft mounting rod, and the closing block is provided with a fixed hole and a mounting notch that communicate with each other. The mounting rod is located in the mounting notch, and the mounting rod is located in the fixed hole and is rotatably connected to the closing block. The soft silicone pad is coated on the surface of the mounting rod, so that when the soft silicone pad abuts against the conductive cloth, it rolls, reducing the friction between the soft silicone pad and the conductive cloth, and avoiding the problem of large wear of the soft silicone pad.

[0085] Further, the installation rod is detachably connected to the closing block, and the soft silicone gasket is sleeved on the installation rod, so that the soft silicone gasket is detachably connected to the installation rod, which is convenient for regular maintenance or replacement of the soft silicone gasket. In this embodiment, the fixing hole penetrates through the closing block. The installation rod includes a rod body, a first limiting member and a second limiting member. The soft silicone gasket is sleeved on the rod body. The rod body passes through the fixing hole, and both ends of the rod body protrude from both sides of the closing block. The first limiting member and the second limiting member are both detachably connected to the rod body, and the first limiting member and the second limiting member are respectively located on both sides of the closing block, so that the rod body is reliably connected to the closing block. Since both the first limiting member and the second limiting member are detachably connected to the rod body, the soft silicone gasket is detachably connected to the installation rod.

[0086] Further, both the first limiting member and the second limiting member are clamping members. Further, first clamping grooves and second clamping grooves are respectively formed at both ends of the rod body. The first limiting member is clamped in the first clamping groove, and the second limiting member is clamped in the second clamping groove, so that both the first limiting member and the second limiting member are detachably connected to the rod body. At the same time, both the first limiting member and the second limiting member can be quickly disassembled and assembled with the rod body, so that the rod body is reliably installed in the closing block, improving the convenience of use of the core-piercing mechanism. In this embodiment, the soft silicone gasket is sleeved on the rod body, and the soft silicone gasket is in interference fit with the rod body to prevent the soft silicone gasket from rotating relative to the rod body, so that the closing member can better act on the surface of the conductive cloth.

[0087] Similarly, when the forming member 221 presses against the conductive cloth, there is also relative sliding between the forming member 221 and the conductive cloth, and the forming member 221 will inevitably wear the conductive cloth, thus damaging the service performance of the conductive cloth. To further prevent the conductive cloth from being worn, in one embodiment, a silicone sleeve is sleeved on the outer side of the forming member 221 in contact with the conductive cloth. The silicone sleeve is made of soft silicone. When the conductive cloth presses against the forming member 221, the silicone sleeve contacts the conductive cloth. Since the material of the silicone sleeve is soft, the wear of the conductive cloth when the silicone sleeve contacts the conductive cloth is small, preventing the forming member 221 from damaging the service performance of the conductive cloth, thereby improving the quality of the conductive cloth foam strip 400.

[0088] In one embodiment, the working process of the conductive cloth wrapping core-threading machine 10 is as follows: first, the forming drive member drives the fixing member 223 to move, so that the forming member 221 is sequentially inserted into the foam hole 210b and the forming hole 210a, and at the same time, the fixing member 223 slides along the guide member 222; then the rotary drive component 610 drives the fixing table 620 to rotate, so that the feeding mechanism 100 rotates to a position staggered from the core-threading mechanism 200; then the conductive cloth is placed on the discharge trough, and the adsorption hole forms a negative pressure and adsorbs the conductive cloth; then the rotary drive component 610 drives the fixing table 620 to rotate, so that the feeding mechanism 100 rotates to the forming hole 210a. Directly below, the forming groove 100a corresponds to the forming piece 221 located in the forming hole 210a up and down; then the feeding drive component 120 drives the feeding fixture 110 to move upward, so that the feeding fixture 110 enters the forming hole 210a, so that the feeding fixture 110 covers the forming piece 221, so that the middle of the conductive cloth enters the forming groove 100a, and the two sides of the conductive cloth are tilted from the forming hole 210a; then the closing drive component 232 drives the two closing pieces 231 to close, so that the two closing pieces 231 push the two sides of the conductive cloth to close into a tubular structure; then the hot pressing drive component 510 drives the heating component 520 and the closing piece 231, the heat of the heating component 520 is transferred to the conductive cloth through the closing member 231, so that the conductive cloth is quickly shaped into a tubular structure after being heated; then the hot pressing driving component 510 drives the heating component 520 to separate from the closing member 231; then the forming driving component drives the fixing component 223 to move, so that the forming component 221 leaves the forming hole 210a and the foam hole 210b in turn, and at the same time, the fixing component 223 slides along the guide member 222; then the vibration plate 710 transports the foam strip 400 to the retention groove 821a through vibration; then the first driving member 321 drives the second driving member 322 to move horizontally, so that the adsorption member 330 Horizontally move, the second driving member 322 drives the adsorption member 330 to move vertically, so that the adsorption member 330 takes out the foam strip 400 from the retention groove 821a of the blocking fixture 821 to the foam hole 210b; then the forming driving member drives the fixing member 223 to move, so that the forming member 221 moves, and at the same time, the fixing member 223 slides along the guide member 222, so that the forming member 221 pushes the foam strip 400 through the connecting hole 210c and enters the forming hole 210a, so that the foam strip 400 is penetrated into the conductive cloth; then the closing driving member 232 drives the two closing members 231 to separate; finally, the conductive cloth foam strip 400 is taken out.

[0089] The present application also provides a conductive cloth wrapped core threading method, which uses the conductive cloth wrapped core threading machine described in any of the above embodiments to thread the foam strip into the conductive cloth to prepare a conductive cloth foam strip. Furthermore, the conductive cloth wrapped core threading method wraps part or all of the following steps:

[0090] S101: Control the forming end of the forming component to sequentially penetrate into the foam hole and the forming hole. In this embodiment, the forming component is controlled by a controller to sequentially penetrate into the foam hole and the forming hole. It can be understood that the controller can be a single-chip microcomputer chip or an industrial computer.

[0091] S103: Move the conductive cloth into the forming hole through the feeding mechanism, and make the forming end of the forming component located in the forming groove, so that the conductive cloth enters the forming groove and both sides of the conductive cloth warp up from the forming hole. In one embodiment, before step S103 and after step S101, the conductive cloth wrapping and core-passing method further includes: rotating the feeding mechanism to directly below the forming hole through the rotating mechanism, that is, rotating the feeding mechanism to the position corresponding to the forming hole through the rotating mechanism, so that the feeding mechanism can quickly and accurately move the conductive part into the forming hole.

[0092] S105: Push both sides of the conductive cloth through the power output end of the closing component, so that the conductive cloth closes into a tubular structure. In this embodiment, the controller controls the closing component to work, so that the power output end of the closing component closes. In this way, both sides of the conductive cloth are pushed through the power output end of the closing component, so that the conductive cloth closes into a tubular structure.

[0093] S107: Control the forming end of the forming component to sequentially leave the forming hole and the foam hole. In this embodiment, the controller controls the forming component to sequentially leave the forming hole and the foam hole.

[0094] S109: Move the foam strip into the foam hole through the handling mechanism. In this embodiment, when the controller senses that the forming end of the forming component leaves the foam hole, the controller controls the handling mechanism to move the foam into the foam hole.

[0095] In one embodiment, before step S109 and after step S107, the conductive cloth wrapping and core-passing method further includes: conveying the foam strip to the conveying path of the handling mechanism through the vibration of the vibrating disk 810.

[0096] S111: Control the forming end of the forming component to penetrate into the foam hole again, so as to push the foam strip through the connection hole into the forming hole, so that the foam strip penetrates through the conductive cloth, thereby obtaining a conductive cloth foam strip. In this embodiment, the controller controls the forming end of the forming component to penetrate into the foam hole again, so as to push the foam strip through the connection hole and then into the forming hole, so that the foam strip penetrates through the conductive cloth, thereby obtaining a conductive cloth foam strip.

[0097] Compared with the prior art, the present invention has at least the following advantages:

[0098] 1. The feeding mechanism 100 feeds the conductive cloth into the forming hole 210a, causing the forming ends of the forming assembly 220 to warp the two sides of the conductive cloth. Then, the closing assembly 230 closes the conductive cloth into a tubular structure. The handling mechanism 300 places the foam strip 400 into the foam hole 210b, and then the forming ends of the forming assembly 220 push the foam strip 400 into the forming hole 210a, thereby obtaining the conductive cloth foam strip 400. In this way, the entire process of processing the conductive cloth foam strip 400 is completed by machinery, enabling continuous processing. Compared with manually manufacturing the conductive cloth foam strip 400, the processing efficiency of the conductive cloth foam strip 400 is greatly improved.

[0099] 2. The feeding mechanism 100 feeds the conductive cloth into the forming hole 210a, causing the forming ends of the forming assembly 220 to warp the two sides of the conductive cloth. Then, the closing assembly 230 closes the conductive cloth into a tubular structure. The handling mechanism 300 places the foam strip 400 into the foam hole 210b, and then the forming ends of the forming assembly 220 push the foam strip 400 into the forming hole 210a, thereby obtaining the conductive cloth foam strip 400. Since each action of the mechanical processing is consistent and there is no need for manual intervention in the middle, the factor of human error is avoided, and the quality stability of the conductive cloth foam strip 400 is improved.

[0100] The above-described embodiments merely represent several implementation manners of the present invention. The description is relatively specific and detailed, but it should not be construed as a limitation on the scope of the invention patent. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several modifications and improvements can still be made, and these all fall within the protection scope of the present invention. Therefore, the protection scope of the present invention patent shall be subject to the appended claims.

Claims

1. A conductive cloth wrapping core-piercing machine, characterized in that, Comprising: A loading mechanism, which is provided with a forming groove. The loading mechanism is used for placing the conductive cloth, and the conductive cloth is located above the forming groove, so that the forming groove is used for forming the conductive cloth. A core-passing mechanism, which includes a core-passing base, a forming component and a closing component. The core-passing base is provided with a foam hole, a connecting hole and a forming hole that are sequentially communicated. The forming end of the forming component movably passes through the connecting hole, the forming hole and the foam hole, and the end of the forming end of the forming component can respectively move into the forming hole and the foam hole. The loading mechanism is used for moving the conductive cloth into the forming hole, so that the forming end of the forming component is located in the forming groove, so that a part of the conductive cloth enters the forming groove and both sides of the conductive cloth warp out of the forming hole. The power output end of the closing component is movably connected to the core-passing base, and the power output end of the closing component is arranged on both sides of the forming hole. The power output end of the closing component is used for pushing and closing the two warped sides of the conductive cloth, so that the conductive cloth forms a tubular structure; and A handling mechanism, which is used for moving the foam strip into the foam hole. The forming end of the forming component is used for pushing the foam strip to enter the forming hole through the connecting hole, so that the foam strip penetrates through the conductive cloth. The forming component includes a forming driving part and a forming part. The power output end of the forming driving part is fixedly connected to the forming part. The forming driving part is used for driving the forming part to movably pass through the forming hole and the foam hole. The loading mechanism includes a loading jig and a loading driving component. The forming groove is arranged on the loading jig. The power output end of the loading driving component is fixedly connected to the loading jig. The loading driving component is used for driving the loading jig into the forming hole, so that the forming end of the forming component is located in the forming groove, so that a part of the conductive cloth enters the forming groove and both sides of the conductive cloth warp out of the forming hole.

2. The conductive cloth wrapping core-piercing machine according to claim 1, characterized in that, The conductive cloth wrapping core-passing machine further includes a hot pressing mechanism, which is arranged opposite to the closing component. The hot pressing mechanism is used for heating the closing component.

3. The conductive cloth wrapping core-piercing machine according to claim 2, characterized in that, The hot pressing mechanism includes a hot pressing driving component and a heating component. The power output end of the hot pressing driving component is connected to the heating component. The power output end of the hot pressing driving component is used for driving the heating component to move. The heating component is arranged opposite to the closing component, and the heating component is used for heating the closing component.

4. The conductive cloth wrapping core-piercing machine according to claim 3, characterized in that, One end of the heating component far away from the closing component is movably connected to the power output end of the hot pressing driving component. The hot pressing mechanism further includes an elastic component, which is arranged between the hot pressing driving component and the heating component.

5. The conductive cloth wrapping core-piercing machine according to claim 1, characterized in that, The forming component further includes a guiding part. One end of the guiding part is fixedly connected to the core-passing base, and the other end of the guiding part is movably connected to the forming part.

6. The conductive cloth wrapping core-piercing machine according to claim 1, characterized in that, The conductive cloth wrapping core-piercing machine further includes a rotating mechanism, the rotating mechanism includes a rotating drive assembly and a fixed table, the power output end of the rotating drive assembly is fixedly connected to the fixed table, the feeding mechanism is installed on the fixed table, and the feeding mechanism is arranged staggeredly with the power output end of the rotating drive assembly.

7. The conductive cloth wrapping core-piercing machine according to claim 1, characterized in that, The closing assembly includes two closing members and a closing drive member. Both of the two closing members are slidably connected to the core-piercing base. The two closing members are oppositely arranged on the core-piercing base, and the forming hole is located between the two closing members; the power output end of the closing drive member is fixedly connected to the two closing members respectively, and the closing drive member is used to drive the two closing members to approach or separate from each other, so that the closing members push and close the two sides where the conductive cloth warps out.

8. A conductive cloth wrapping core-piercing method, characterized in that, Using the conductive cloth wrapping core-piercing machine according to any one of claims 1 to 7 to pass the foam strip through the conductive cloth for preparing a conductive cloth foam strip; the conductive cloth wrapping core-piercing method includes the following steps: Controlling the forming end of the forming assembly to sequentially penetrate into the foam hole and the forming hole; Moving the conductive cloth to the forming hole through the feeding mechanism, and making the forming end of the forming assembly located in the forming groove, so that the conductive cloth enters the forming groove and both sides of the conductive cloth warp out from the forming hole; Pushing both sides of the conductive cloth through the power output end of the closing assembly, so that the conductive cloth is closed into a tubular structure; Controlling the forming end of the forming assembly to sequentially leave the forming hole and the foam hole; Moving the foam strip to the foam hole through the handling mechanism; Controlling the forming end of the forming assembly to penetrate into the foam hole again to push the foam strip into the forming hole, so that the foam strip is passed through the conductive cloth.

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