Method and apparatus for producing a composite fabric

Abstract

This invention provides a method for producing composite fabrics, comprising the following steps: S1, using a cutting machine to cut the upper and lower layers of fabric to the required size; S2, transferring the cut upper and lower layers of fabric to a transfer cart; S3, placing one set of lower and upper layers of fabric sequentially on the lower platform one of the hot-pressing composite production device, and placing another set of lower and upper layers of fabric sequentially on the lower platform two of the hot-pressing composite production device; S4, operating cylinders one and two to lower the upper pressure plates one and two, respectively, to cooperate with the lower platform one and lower platform two to complete the hot-pressing composite process of the two composite fabrics; S5, by flipping the lower platform one and lower platform two one by one, transferring the composite fabrics to a conveyor belt for conveying, and finally obtaining the desired composite fabric; and the apparatus thereof.

Description

Technical Field

[0001] This invention belongs to the field of fabric production technology, and relates to a method and apparatus for producing composite fabrics. Background Technology

[0002] Composite fabrics are made by combining two or more different types of fabrics through specific processes, resulting in significantly improved performance compared to single-layer fabrics. By combining different fabrics, the advantages of each can be combined to create a new material that not only meets various usage needs but also offers substantial enhancements in durability, comfort, and functionality. For example, combining waterproof and breathable fabrics creates a composite fabric that is both waterproof and breathable, ideal for outdoor sports equipment. Furthermore, composite fabrics have wide applications in clothing, home furnishings, and medical fields, and their diverse functions and properties make them an indispensable part of the modern textile market.

[0003] In current garment fabric processing, when two different fabrics need to be laminated, hot-pressing lamination technology is usually used. In this process, the two fabrics are first placed manually into a hot-pressing device, and then they are tightly bonded together by hot pressing. After lamination, workers need to intervene again to remove the laminated fabric from the device. After removal, these fabrics need to be transported to the next work station for further processing. This entire series of operations not only requires precise manual operation but also places high demands on the physical strength of the operators. The labor intensity of the entire process is quite high. Therefore, it is necessary to design a production method and device for laminated fabrics. Summary of the Invention

[0004] The purpose of this invention is to address the aforementioned problems in existing technologies by proposing a method and apparatus for producing composite fabrics.

[0005] The objective of this invention can be achieved through the following technical solution: a method for producing composite fabrics, comprising the following specific steps: S1. Use a cutting machine to cut the upper and lower layers of fabric to the required size. S2. Transfer the cut upper and lower layers of fabric to a transfer cart. S3. Place one set of lower and upper layers of fabric sequentially on the lower platform one of the hot-pressing laminating production device, and place another set of lower and upper layers of fabric sequentially on the lower platform two of the hot-pressing laminating production device. S4. Operate cylinders one and two to lower the upper pressure plates one and two, respectively, to cooperate with the lower platforms one and two to complete the hot-pressing laminating process of the two composite fabrics. S5. By flipping the lower platforms one and two one by one, transfer the composite fabrics to the conveyor belt for transport, and finally obtain the desired composite fabric.

[0006] Step S5 also includes periodic random checks.

[0007] A hot-pressing lamination production device includes a base, on which a hot-pressing lamination mechanism and a fabric output mechanism are mounted. The hot-pressing lamination mechanism includes a support, a housing, an upper pressure plate, an upper pressure plate, a lower placement platform, a lower placement platform, a cylinder, and a cylinder. The support is mounted on the base. The lower placement platforms are mounted on the base via an adjustable structure, and both platforms can switch between horizontal and vertical positions. The housing is mounted on the base via a vertical rod and is located above the base. A mounting device is installed inside the housing. A crossbeam is installed, on which mounting plates one and two are mounted. Cylinder one is mounted on mounting plate one, and the piston rod end of cylinder one is connected to lifting frame one. Upper pressure plate one is mounted on lifting frame one and can contact lower placement platform one. Electric heating plate one is also mounted on upper pressure plate one. Cylinder two is mounted on mounting plate two, and the piston rod end of cylinder two is connected to lifting frame two. Upper pressure plate two is mounted on lifting frame two and can contact lower placement platform two. Electric heating plate two is also mounted on upper pressure plate two.

[0008] The mounting plate 2 has guide sleeves 1 installed on both sides, and guide posts 1 are slidably connected to the guide sleeves 1. The lower end of the guide posts 1 is connected to the lifting frame 1. The mounting plate 2 has guide sleeves 2 installed on both sides, and guide posts 2 are slidably connected to the guide sleeves 2. The lower end of the guide posts 2 is connected to the lifting frame 2.

[0009] The fabric output mechanism includes a mounting frame and a conveyor belt. The mounting frame is mounted on the machine base, and the length of the mounting frame is greater than the length of the machine base. The end of the mounting frame away from the machine base also has an auxiliary leg. The conveyor belt is mounted on the mounting frame and is driven by a power motor. The mounting frame is also equipped with a sampling inspection structure.

[0010] The control structure includes a switching platform 1, a switching platform 2, a rotating shaft 1, a rotating shaft 2, and a control shaft. Rotating shaft 1 and rotating shaft 2 are both horizontally rotatably mounted on the frame. Rotating shaft 1 is connected to one end of power arm 1, and the other end of power arm 1 has a working handle 1. Rotating shaft 2 is connected to one end of power arm 2, and the other end of power arm 2 has a working handle 2. One end of switching platform 1 is fixedly connected to rotating shaft 1, and one end of switching platform 2 is fixedly connected to rotating shaft 2. The support has an upper crossbeam and a lower crossbeam. The upper crossbeam is arranged between rotating shaft 1 and rotating shaft 2, and the lower crossbeam is arranged below the upper crossbeam. The upper crossbeam is Z-shaped, and its outer ends have outer pin shaft 1 and outer pin shaft 2. The middle part of power arm 1 has an inner pin shaft. First, the power arm two has an inner pin shaft two, and a return spring one is located between the outer pin shaft one and the inner pin shaft one. A return spring two is located between the outer pin shaft two and the inner pin shaft two. The middle part of the upper crossbeam has an upper limit rod and a lower limit rod, and the upper limit rod can abut against the switching platform one and the switching platform two respectively. The lower limit rod can abut against the power arm one and the power arm two respectively. The control shaft is horizontally rotatably mounted on the lower crossbeam. A large fan-shaped wheel and a small fan-shaped wheel are respectively mounted on one end of the control shaft. The large fan-shaped wheel cooperates with the working handle one, and the small fan-shaped wheel cooperates with the working handle two. The other end of the control shaft is also connected to a power module that can rotate it. The lower placement platform one is connected to the switching platform one, and the lower placement platform two is connected to the switching platform two.

[0011] The power module includes a servo motor.

[0012] The sampling structure includes a vertical plate, a third cylinder, a push plate, a baffle, an L-shaped main linkage rod, an L-shaped driven linkage rod, a cylindrical spring, a guide block, a guide rod, and a buffer box. The mounting frame has an opening on one side, the vertical plate is mounted on one side of the mounting frame, and an opening on the other side of the mounting frame. The buffer box is mounted on the other side of the mounting frame. The third cylinder is mounted on the vertical plate, and the piston rod end of the third cylinder is connected to a movable plate. The push plate is mounted on the movable plate and can close the first opening. The guide block is mounted on the vertical plate, and the guide rod is vertically slidably connected to the guide block. The lower end of the guide rod is connected to the limiting block, and the upper end of the guide rod is connected to one end of the L-shaped follower linkage rod. The baffle is installed on the other end of the L-shaped follower linkage rod and can close the opening. The cylindrical spring is sleeved on the guide rod, and the upper end of the cylindrical spring abuts against the L-shaped follower linkage rod. The lower end of the cylindrical spring abuts against the guide block. A base plate is also installed on one end of the L-shaped follower linkage rod, and a guide wheel is installed on the base plate. One end of the L-shaped main linkage rod is connected to the movable plate, and the other end of the L-shaped main linkage rod can cooperate with the guide wheel. The middle part of the L-shaped main linkage rod also has an inclined transition part.

[0013] The push plate is also equipped with a brush strip.

[0014] Guide sleeves are installed on both sides of the upright plate, and guide posts are slidably connected to the guide sleeves. One end of the guide posts is connected to the movable plate.

[0015] Indicator lights are installed on the housing, and an electronic control panel is also installed on the housing. Cylinder 1, Cylinder 2, Cylinder 3, the power motor and the servo motor are all connected to the electronic control panel.

[0016] Compared with existing technologies, the production method and apparatus for this composite fabric have the following advantages: In this invention, a carefully designed hot-pressing composite production device allows the operator to automatically complete the composite process by simply placing the upper and lower layers of fabric into the machine. After the composite process is completed, the fabric can be automatically transferred to a conveyor belt for output, achieving convenience and efficiency in the production process and greatly reducing labor intensity. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the planar structure of the present invention; Figure 2 This is a magnified view of a portion of point A; Figure 3 This is a schematic diagram of the planar structure of the hot-pressing composite mechanism in this invention; Figure 4 This is a schematic diagram of the planar structure of the removed portion of the hot-pressing composite mechanism in this invention; Figure 5 This is a schematic diagram of the planar structure of the sampling inspection structure in this invention; Figure 6 This is a three-dimensional structural diagram of the control structure in this invention; Figure 7 This is a magnified view of a section at point B; Figure 8 This is a schematic diagram of the planar structure of the control structure with the portion removed in this invention; In the diagram, 1. Base; 201. Housing; 202. Lower placement platform one; 203. Lower placement platform two; 204. Upper pressure plate one; 205. Lifting frame one; 206. Cylinder one; 207. Cylinder two; 208. Mounting plate two; 209. Upper pressure plate two; 210. Electric heating plate two; 211. Mounting beam; 212. Electric heating plate one; 213. Mounting plate one; 214. Guide sleeve one; 2 15. Guide column one; 216. Guide column two; 217. Guide sleeve two; 218. Lifting frame two; 301. Mounting bracket; 301x. Opening one; 301y. Opening two; 302. Conveyor belt; 303. Auxiliary leg; 401. Vertical plate; 402. Push plate; 403. Baffle; 404. Buffer box; 405. Guide rod; 406. Guide block; 407. Base plate; 408. L-shaped main linkage rod ; 408x, Transition section; 409, Limiting block; 410, Guide wheel; 411, Cylinder three; 412, Movable plate; 413, Hair strip; 414, L-shaped linkage rod; 415, Cylindrical spring; 416, Guide sleeve three; 417, Guide post three; 501, Power module; 502, Bracket; 503, Switching platform two; 504, Lower crossbeam; 505, Return spring two; 506, Return spring 507. Spring 1; 508. Switching console 1; 509. Rotary shaft 1; 509. Power arm 1; 509x. Working handle 1; 510. Upper crossbeam; 511. Large sector wheel; 512. Small sector wheel; 513. Adjustment shaft; 514. Rotary shaft 2; 515. Power arm 2; 515x. Working handle 2; 516. Upper limit lever; 517. Lower limit lever; 6. Electrical control panel; 7. Indicator light. Detailed Implementation

[0018] The following are specific embodiments of the present invention, which are described in conjunction with the accompanying drawings. However, the present invention is not limited to these embodiments.

[0019] like Figures 1-8 As shown, the production method of this composite fabric includes the following specific steps: S1. Use a cutting machine to cut the upper and lower layers of fabric to the required size. S2. Transfer the cut upper and lower layers of fabric to a transfer cart. S3. Place one set of lower and upper layers of fabric sequentially on the lower placement platform 202 of the hot-pressing composite production device, and place another set of lower and upper layers of fabric sequentially on the lower placement platform 203 of the hot-pressing composite production device. S4. Operate cylinders 206 and 207 to lower the upper pressure plates 204 and 209, respectively, to cooperate with the lower placement platforms 202 and 203 to complete the hot-pressing composite process of the two fabrics. S5. By flipping the lower placement platforms 202 and 203 one by one, transfer the composite fabrics to the conveyor belt 302 for transport, ultimately obtaining the desired composite fabric.

[0020] Step S5 also includes periodic spot checks.

[0021] This hot-pressing lamination production device includes a base 1, on which a hot-pressing lamination mechanism and a fabric output mechanism are installed. The hot-pressing lamination mechanism includes a support 502, a housing 201, an upper pressure plate 204, an upper pressure plate 209, a lower placement platform 202, a lower placement platform 203, a cylinder 206, and a cylinder 207. The support 502 is mounted on the base 1. The lower placement platforms 202 and 203 are set on the base 1 through an adjustment structure, and both can switch between horizontal and vertical states. The housing 201 is mounted on the base 1 via a vertical rod, and the housing 201 is located above the base 1. An installation beam 211 is installed inside the housing 201. An installation plate 213 and an installation plate 208 are installed on the installation beam 211. The cylinder 206 is installed on the installation plate 213. The piston rod end of the cylinder 206... Connected to the lifting frame 205, the upper pressure plate 204 is mounted on the lifting frame 205 and can contact the lower placement platform 202. The upper pressure plate 204 is also equipped with an electric heating plate 212. The cylinder 207 is mounted on the mounting plate 208, and the piston rod end of the cylinder 207 is connected to the lifting frame 218. The upper pressure plate 209 is mounted on the lifting frame 218 and can contact the lower placement platform 203. The upper pressure plate 209 is also equipped with an electric heating plate 210. With this structure, a set of lower and upper fabrics are stacked on the lower placement platform 202 in sequence. By moving the upper pressure plate 204 downward, the electric heating plate 212 can heat the upper pressure plate 204, thereby completing the hot pressing composite operation of the fabric. In this embodiment, the hot pressing method for completing the composite of two fabrics adopts the existing technology.

[0022] Mounting plate 208 has guide sleeves 214 installed on both sides. Guide posts 215 are slidably connected to guide sleeves 214. The lower end of guide posts 215 is connected to lifting frame 205. Mounting plate 208 also has guide sleeves 217 installed on both sides. Guide posts 216 are slidably connected to guide sleeves 217. The lower end of guide posts 216 is connected to lifting frame 218. With this structure, the lifting frames 205 and 218 can be made more stable up and down by the cooperation of guide sleeves 214 and guide posts 215, guide sleeves 217 and guide posts 216.

[0023] The fabric output mechanism includes a mounting frame 301 and a conveyor belt 302. The mounting frame 301 is mounted on the machine base 1, and the length of the mounting frame 301 is greater than the length of the machine base 1. The end of the mounting frame 301 away from the machine base 1 also has an auxiliary leg 303. The conveyor belt 302 is set on the mounting frame 301 and is driven by a power motor. The mounting frame 301 is also equipped with a sampling inspection structure. With this structure, after the lower placement platform 1 202 and the lower placement platform 203 are switched from horizontal to vertical in sequence, the laminated fabric can fall onto the conveyor belt 302 and be transported to the next workstation. The sampling inspection structure can be used to sample and inspect the laminated fabric on the conveyor belt 302. The sampling inspection can be carried out as needed, and the quality of the fabric lamination can be manually checked after sampling at regular intervals.

[0024] The control structure includes a switching platform 507, a switching platform 503, a rotating shaft 508, a rotating shaft 514, and a control shaft 513. Both rotating shafts 508 and 514 are horizontally rotatably mounted on the frame. One end of rotating shaft 508 is connected to one end of a power arm 509, the other end of which has a working handle 509x. One end of rotating shaft 514 is connected to one end of a power arm 515, the other end of which has a working handle 515x. One end of switching platform 507 is fixedly connected to rotating shaft 508, and one end of switching platform 503 is fixedly connected to rotating shaft 514. A support 50... The upper arm 510 has an upper crossbeam 510 and a lower crossbeam 504. The upper crossbeam 510 is arranged between pivot 1 508 and pivot 2 514, and the lower crossbeam 504 is arranged below the upper crossbeam 510. The upper crossbeam 510 is Z-shaped. The outer ends of the upper crossbeam 510 have outer pin 1 and outer pin 2. The middle part of the power arm 1 509 has inner pin 1, and the power arm 2 515 has inner pin 2. There is a return spring 1 506 between outer pin 1 and inner pin 1, and a return spring 2 505 between outer pin 2 and inner pin 2. The middle part of the upper crossbeam 510 has an upper limit rod 516 and a lower limit rod 517. The upper limit lever 516 can abut against the first switching platform 507 and the second switching platform 503 respectively. With this structure, when the first switching platform 507 and the second switching platform 503 switch from a horizontal state to a vertical state, they can abut against the upper limit lever 516. The lower limit lever 517 can abut against the first power arm 509 and the second power arm 515 respectively. When the first switching platform 507 and the second switching platform 503 switch from a vertical state to a horizontal state, the first power arm 509 and the second power arm 515 can abut against the lower limit lever 517. The adjusting shaft 513 is horizontally rotatably mounted on the lower crossbeam 50. 4. On one end of the control shaft 513, a large sector wheel 511 and a small sector wheel 512 are respectively installed. The large sector wheel 511 is engaged with the working handle 509x, and the small sector wheel 512 is engaged with the working handle 515x. The other end of the control shaft 513 is also connected to a power module 501 that can rotate it. In this embodiment, the power module 501 can drive the control shaft 513 to rotate, thereby driving the large sector wheel 511 and the small sector wheel 512 to rotate as needed. The lower platform 202 is connected to the switching platform 507, and the lower platform 203 is connected to the switching platform 2 503.With this structure, when the lower placement platform 1 202 and the lower placement platform 203 are verticalized from horizontal cutting, the control shaft 513 drives the large fan-shaped wheel 511 and the small fan-shaped wheel 512 to rotate. The large fan-shaped wheel 511 first abuts against the working handle 1 509x, causing the switching platform 1 507 to rotate first. Then, the small fan-shaped wheel 512 abuts against the working handle 2 515x, causing the switching platform 2 503 to rotate laterally. The lower placement platform 1 202 first transfers the composite fabric to the conveyor belt 302, and the lower placement platform 203 then transfers the composite fabric to the conveyor belt 302, so that the composite fabric is transferred to the conveyor belt 302 in sequence. The large fan-shaped wheel 511 and the small fan-shaped wheel 512 disengage simultaneously, so that the lower placement platform 1 202 and the lower placement platform 203 simultaneously return to horizontal position, resulting in good control effect. The power module 501 includes a servo motor.

[0025] The sampling structure includes a vertical plate 401, a cylinder 411, a push plate 402, a baffle 403, an L-shaped main linkage rod 408, an L-shaped driven linkage rod 414, a cylindrical spring 415, a guide block 406, a guide rod 405, and a buffer box 404. The mounting bracket 301 has an opening 301x on one side, the vertical plate 401 is mounted on one side of the mounting bracket 301, and an opening 301y on the other side of the mounting bracket 301. The buffer box 404 is mounted on the other side of the mounting bracket 301. The cylinder 411 is mounted on the vertical plate 401, and the piston rod end of the cylinder 411 is connected to the movable plate 412. A push plate 402 is mounted on a movable plate 412, and the push plate 402 can close the opening 301x. A guide block 406 is mounted on a vertical plate 401. A guide rod 405 is vertically slidably connected to the guide block 406. The lower end of the guide rod 405 is connected to a limiting block 409, and the upper end of the guide rod 405 is connected to one end of an L-shaped linkage rod 414. A baffle 403 is mounted on the other end of the L-shaped linkage rod 414, and the baffle 403 can close the opening 301y. A cylindrical spring 415 is sleeved on the guide rod 405, and the upper end of the cylindrical spring 415 is connected to one end of the L-shaped linkage rod 414. The cylindrical spring 415 and the guide block 406 abut against each other. An L-shaped base plate 407 is also installed at one end of the linkage rod 414. A guide wheel 410 is installed on the base plate 407. One end of the L-shaped main linkage rod 408 is connected to the movable plate 412. The other end of the L-shaped main linkage rod 408 can cooperate with the guide wheel 410. The middle part of the L-shaped main linkage rod 408 also has an inclined transition part 408x. A hair strip 413 is also installed on the push plate 402. During normal conveying, the push plate 402 closes the opening 301x and the baffle 403 closes the opening 301y. When random inspection is required, cylinder 3 411 drives the movable plate 412 to open opening 1 301x and opening 2 301y. Cylinder 3 411 drives the movable plate 412 to move towards opening 2 301y. The movable plate 412 drives the push plate 402 to move towards opening 2 301y. With the cooperation of the L-shaped main linkage rod 408, the L-shaped secondary linkage rod 414 and the guide wheel 410, the baffle 403 moves downward synchronously. Thus, under the action of the push plate 402, the composite fabric on the conveyor belt 302 is pushed into the buffer box 404, which is then manually removed for quality inspection.

[0026] Guide sleeves 416 are installed on both sides of the upright plate 401. Guide posts 417 are slidably connected to the guide sleeves 416. One end of the guide posts 417 is connected to the movable plate 412. With this structure, the movement of the movable plate 412 can be made more stable through the guide sleeves 416 and the guide posts 417.

[0027] An indicator light 7 is installed on the housing 201. An electronic control panel 6 is also installed on the housing 201. Cylinder 1 206, Cylinder 2 207, Cylinder 3 411, the power motor and the servo motor are all connected to the electronic control panel 6. This uses existing technology. The control of the cylinder and motor start and stop uses existing technology.

[0028] In this invention, through a carefully designed hot-pressing composite production device, during the production of composite fabrics, the operator only needs to place the upper and lower layers of fabric into the machine to automatically complete the composite process. After the composite is completed, the fabric can also be automatically transferred to the conveyor belt 302 for output, realizing the convenience and efficiency of the production process and greatly reducing labor intensity.

[0029] All of the above components are general standard parts or components known to those skilled in the art. Their structure and principles can be learned by those skilled in the art through technical manuals or conventional experimental methods.

[0030] The specific embodiments described herein are merely illustrative of the spirit of the invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to substitute them, without departing from the spirit of the invention or exceeding the scope defined by the appended claims.

Claims

1. A hot-pressing composite production apparatus, comprising a base (1), characterized in that, The base (1) is equipped with a hot-pressing composite mechanism and a fabric output mechanism. The hot-pressing composite mechanism includes a bracket (502), a housing (201), an upper pressure plate (204), an upper pressure plate (209), a lower placement platform (202), a lower placement platform (203), a cylinder (206), and a cylinder (207). The bracket (502) is mounted on the base (1). The lower placement platform (202) and the lower placement platform (203) are set on the base (1) through an adjustment structure, and both the lower placement platform (202) and the lower placement platform (203) can switch between horizontal and vertical states. The housing (201) is mounted on the base (1) through a vertical rod, and the housing (201) is located above the base (1). An installation beam (211) is installed inside the housing (201). Mounting plate 1 (213) and mounting plate 2 (208) are installed on the upper part. Cylinder 1 (206) is installed on mounting plate 1 (213). The piston rod end of cylinder 1 (206) is connected to lifting frame 1 (205). Upper pressure plate 1 (204) is installed on lifting frame 1 (205) and can contact lower placement platform 1 (202). Electric heating plate 1 (212) is also installed on upper pressure plate 1 (204). Cylinder 2 (207) is installed on mounting plate 2 (208). The piston rod end of cylinder 2 (207) is connected to lifting frame 2 (218). Upper pressure plate 2 (209) is installed on lifting frame 2 (218) and can contact lower placement platform 2 (203). Electric heating plate 2 (210) is also installed on upper pressure plate 2 (209). The control structure includes a switching platform 1 (507), a switching platform 2 (503), a rotating shaft 1 (508), a rotating shaft 2 (514), and a control shaft (513). Rotating shaft 1 (508) and rotating shaft 2 (514) are both horizontally rotatably mounted on a bracket (502). Rotating shaft 1 (508) is connected to one end of power arm 1 (509), and the other end of power arm 1 (509) has a working handle 1 (509x). Rotating shaft 2 (514) is connected to one end of power arm 2 (515), and power arm 2 (513)... 15) has a working handle two (515x) at the other end. One end of the switching table one (507) is fixedly connected to the rotating shaft one (508), and one end of the switching table two (503) is fixedly connected to the rotating shaft two (514). The bracket (502) has an upper crossbeam (510) and a lower crossbeam (504). The upper crossbeam (510) is arranged between the rotating shaft one (508) and the rotating shaft two (514), and the lower crossbeam (504) is arranged below the upper crossbeam (510). The upper crossbeam (510) is Z-shaped. The outer end of the crossbeam (510) has an outer pin 1 and an outer pin 2. The middle part of the power arm 1 (509) has an inner pin 1, and the power arm 2 (515) has an inner pin 2. There is a return spring 1 (506) between the outer pin 1 and the inner pin 1, and there is a return spring 2 (505) between the outer pin 2 and the inner pin 2. The middle part of the upper crossbeam (510) has an upper limit rod (516) and a lower limit rod (517), and the upper limit rod (516) can respectively connect with the switching platform 1 (507) and the switching platform 2 (518). 03) Mutual abutment; the control shaft (513) is horizontally rotated and installed on the lower crossbeam (504). One end of the control shaft (513) is respectively equipped with a large fan-shaped wheel (511) and a small fan-shaped wheel (512). The large fan-shaped wheel (511) cooperates with the first working handle (509x), and the small fan-shaped wheel (512) cooperates with the second working handle (515x). The other end of the control shaft (513) is also connected to a power module (501) that enables it to rotate. The power module (501) includes a servo motor.

2. The hot-pressing composite production apparatus according to claim 1, characterized in that, The mounting plate 2 (208) is equipped with guide sleeve 1 (214) on both sides, and guide post 1 (215) is slidably connected on the guide sleeve 1 (214). The lower end of the guide post 1 (215) is connected to the lifting frame 1 (205). The mounting plate 2 (208) is equipped with guide sleeve 2 (217) on both sides, and guide post 2 (216) is slidably connected on the guide sleeve 2 (217). The lower end of the guide post 2 (216) is connected to the lifting frame 2 (218).

3. The hot-pressing composite production apparatus according to claim 1, characterized in that, The fabric output mechanism includes a mounting frame (301) and a conveyor belt (302). The mounting frame (301) is mounted on the machine base (1), and the length of the mounting frame (301) is greater than the length of the machine base (1). The end of the mounting frame (301) away from the machine base (1) also has an auxiliary leg (303). The conveyor belt (302) is set on the mounting frame (301) and is driven by a power motor. The mounting frame (301) is also provided with a sampling inspection structure.

4. The hot-pressing composite production apparatus according to claim 3, characterized in that, The sampling structure includes a vertical plate (401), a cylinder (411), a push plate (402), a baffle (403), an L-shaped main linkage rod (408), an L-shaped driven linkage rod (414), a cylindrical spring (415), a guide block (406), a guide rod (405), and a buffer box (404). The mounting bracket (301) has an opening (301x) on one side. The vertical plate (401) is mounted on one side of the mounting bracket (301), and the mounting bracket (301) has an opening on the other side. The second opening (301y), the buffer box (404) is installed on the other side of the mounting bracket (301), the third cylinder (411) is installed on the upright plate (401), the piston rod end of the third cylinder (411) is connected to the movable plate (412), the push plate (402) is installed on the movable plate (412), and the push plate (402) can close the first opening (301x), the guide block (406) is installed on the upright plate (401), and the guide rod (405) slides vertically. The guide rod (405) is attached to the guide block (406). The lower end of the guide rod (405) is connected to the limiting block (409), and the upper end of the guide rod (405) is connected to one end of the L-shaped follower linkage rod (414). The baffle (403) is installed on the other end of the L-shaped follower linkage rod (414) and can close the opening two (301y). The cylindrical spring (415) is sleeved on the guide rod (405), and the upper end of the cylindrical spring (415) is connected to the L-shaped follower linkage rod (414). The lower end of the cylindrical spring (415) abuts against the guide block (406). A base plate (407) is also installed at one end of the L-shaped linkage rod (414). A guide wheel (410) is installed on the base plate (407). One end of the L-shaped main linkage rod (408) is connected to the movable plate (412). The other end of the L-shaped main linkage rod (408) can cooperate with the guide wheel (410). The middle part of the L-shaped main linkage rod (408) also has an inclined transition part (408x).

5. The hot-pressing composite production apparatus according to claim 4, characterized in that, The push plate (402) is also equipped with a brush strip (413).

6. The hot-pressing composite production apparatus according to claim 4, characterized in that, Guide sleeves (416) are installed on both sides of the upright plate (401), and guide posts (417) are slidably connected on the guide sleeves (416). One end of the guide posts (417) is connected to the movable plate (412).

7. The hot-pressing composite production apparatus according to claim 4, characterized in that, An indicator light (7) is installed on the housing (201), and an electronic control panel (6) is also installed on the housing (201). The cylinder one (206), cylinder two (207), cylinder three (411), power motor and servo motor are all connected to the electronic control panel (6).

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