A resin recovery method of a fiber winding machine and a fiber winding resin recovery device

Abstract

The application discloses a resin recovery method and a fiber winding resin recovery device, wherein the resin recovery method is characterized in that a glue connecting area one is arranged between a resin dipping groove and a winding trolley, a glue connecting area two is arranged at the winding trolley, and a glue connecting area three is arranged at a core mold; the resin falling off from the reinforcing fiber between the resin dipping groove and the winding trolley is caught by the glue connecting area one, the resin falling off from the reinforcing fiber passing through the winding trolley is caught by the glue connecting area two, and the resin falling off or scraped off from the reinforcing fiber wound on the core mold is caught by the glue connecting area three; the resin caught by the glue connecting area one is collected into the glue connecting area two, and the resin in the glue connecting area two is collected into the glue connecting area three; and the resin in the glue connecting area three is collected into a resin recovery area arranged at the fiber winding machine for recycling.

Description

A method and device for resin recovery from a fiber winding machine Technical Field

[0001] This invention relates to a resin recycling method and a recycling device, and more particularly to a resin recycling method and a resin recycling device for a fiber winding machine, belonging to the technical field of composite material molding process equipment. Background Technology

[0002] As shown in Figure 1, in the wet winding process, the reinforcing fiber 1 is drawn out from the yarn frame 2, passes through the impregnation tank 3, then through the yarn distributor 411 on the winding carriage 4, then through the yarn spreader 412 on the winding carriage 4, and finally wound onto the mandrel 5 to form the product. The head guide rail 6 and the head 7 are components of the winding machine. The winding carriage 4 is slidably connected to the head guide rail 6. The direction from the impregnation tank 3 to the winding carriage 4 is defined as the X direction, the length direction of the head guide rail 6 as the Y direction, and the height direction of the winding carriage 4 as the Z direction. During operation, the winding carriage 4 can move back and forth along the head guide rail 6 in the Y direction. The mandrel 5 is mounted on the head 7, and the head 7 drives the mandrel 5 to rotate.

[0003] During the production process, due to the low viscosity of the winding resin, resin will drip or be scraped off from the impregnation tank 3 to the mandrel 5 due to gravity and the influence of parts such as the yarn splitter 411 and the yarn spreader 412. This will cause environmental pollution and resin waste. At the same time, resin on the mandrel 5 will also drip off due to gravity during the winding process, and excess resin scraped off with a scraper during production will also drip off, causing environmental pollution and resin waste.

[0004] After searching, no technical solutions for resin recycling of the entire fiber winding machine were found.

[0005] In summary, designing a resin recycling method and device for a fiber winding machine to ensure that dripping or scraped resin does not fall to the ground during the operation of the fiber winding machine and to recycle and reuse the dripping or scraped resin, thereby avoiding environmental pollution and resin waste, is an urgent technical problem to be solved. Summary of the Invention

[0006] The technical problem to be solved by the present invention is to address the deficiencies in the prior art by providing a resin recycling method and a resin recycling device for a fiber winding machine. This method ensures that the resin dripping or scraping off during the operation of the fiber winding machine will not fall to the ground and can be recycled and reused, thereby protecting the production environment and improving the resin reuse rate.

[0007] To solve the above-mentioned technical problems, the technical solution adopted by the present invention is as follows: a resin recycling method for a fiber winding machine, wherein three resin receiving areas are set between the impregnation tank and the mandrel of the fiber winding machine, namely resin receiving area one located between the impregnation tank and the winding carriage, resin receiving area two located at the winding carriage, and resin receiving area three located at the mandrel; during operation, resin receiving area one is used to catch the resin falling from the reinforcing fiber passing between the impregnation tank and the winding carriage, resin receiving area two is used to catch the resin falling from the reinforcing fiber passing through the winding carriage, and resin receiving area three is used to catch the resin falling from or scraped off the reinforcing fiber wound on the mandrel, and the resin caught by resin receiving area one is collected in resin receiving area two, and the resin in resin receiving area two is collected in resin receiving area three.

[0008] The resin recycling method further includes setting up a resin recycling area at the fiber winding machine, and collecting the resin in the bonding area three into the resin recycling area for recycling and reuse.

[0009] Preferably, the first adhesive bonding area is designed as a fan-shaped area that matches the movement area of ​​the reinforcing fiber located within the first adhesive bonding area, so that the reinforcing fiber located between the impregnation tank and the mandrel is always in the fan-shaped adhesive bonding area during the movement.

[0010] The second bonding area is set as a rectangular area that matches the movement area of ​​the reinforcing fiber located in the second bonding area, so that the reinforcing fiber located on the winding trolley is always in the second bonding area during the movement.

[0011] The bonding area three is set as a rectangular area that matches the movement area of ​​the reinforcing fiber located within the bonding area three, so that the reinforcing fiber located on the mandrel is always in the bonding area three during the movement.

[0012] Preferably, a fan-shaped movable adhesive receiving mechanism is provided in the adhesive receiving area. The fan-shaped movable adhesive receiving mechanism is designed as a split structure. The length of the split-structure fan-shaped movable adhesive receiving mechanism can be increased or decreased relatively. The two ends of the split-structure fan-shaped movable adhesive receiving mechanism are respectively hinged to the impregnation tank and the winding trolley.

[0013] During operation, driven by the winding trolley, the length of the split-structure fan-shaped moving adhesive receiving mechanism can be increased or decreased, thereby enabling the movement trajectory of the fan-shaped moving adhesive receiving mechanism to cover the fan-shaped adhesive receiving area.

[0014] Preferably, a core mold adhesive receiving mechanism is provided in the adhesive receiving area three. The core mold adhesive receiving mechanism is also designed as a split structure, and the length of the split core mold adhesive receiving mechanism can be adjusted accordingly. By adjusting the length of the core mold adhesive receiving mechanism, it can be adapted to core molds of different lengths.

[0015] The present invention also discloses a fiber-wound resin recycling device using the resin recycling method described above, which includes a fan-shaped moving resin receiving mechanism located in a resin receiving area, a trolley resin receiving mechanism located in a resin receiving area, and a core mold resin receiving mechanism located in a resin receiving area, wherein a resin recycling mechanism is also provided in the resin recycling area.

[0016] Vertically, the position of the fan-shaped moving glue receiving mechanism is higher than that of the trolley glue receiving mechanism, the position of the trolley glue receiving mechanism is higher than that of the core mold glue receiving mechanism, and the position of the core mold glue receiving mechanism is higher than that of the resin recycling mechanism. This allows the received resin to flow sequentially from the fan-shaped moving glue receiving mechanism, the trolley glue receiving mechanism, and the core mold glue receiving mechanism into the resin recycling mechanism for recycling.

[0017] Preferably, the fan-shaped movable adhesive receiving mechanism includes an adhesive receiving body and a hinge mechanism one and a hinge mechanism two disposed at both ends of the adhesive receiving body. One end of the adhesive receiving body is hinged to the impregnation tank through the hinge mechanism one, and the other end of the adhesive receiving body is hinged to the winding trolley through the hinge mechanism two.

[0018] Preferably, the adhesive receiving body includes a main support, an upper adhesive receiving tray and a lower adhesive receiving tray disposed on the main support. The upper adhesive receiving tray and the lower adhesive receiving tray are respectively provided with a first adhesive receiving hole and a second adhesive receiving hole at one end. The lower adhesive receiving tray is located below the upper adhesive receiving tray and is slidably connected to the main support. A first hinge mechanism is disposed on one end of the main support, and a second hinge mechanism is disposed on one end of the lower adhesive receiving tray. One end of the main support is hinged to the impregnation tank through the first hinge mechanism, and one end of the lower adhesive receiving tray is hinged to the winding trolley through the second hinge mechanism.

[0019] Preferably, the trolley adhesive receiving mechanism includes a trolley fixed adhesive receiving plate, which is fixedly attached to the bottom of the winding trolley.

[0020] Preferably, the core mold receiving mechanism includes a core mold receiving plate one and a core mold receiving plate two disposed below the core mold. A gap L is left between one end of the core mold receiving plate one and one end of the core mold receiving plate two. An intermediate receiving tray is disposed below one end of the core mold receiving plate one and below the core mold receiving plate two, located at the gap L. A glue outlet is provided on the intermediate receiving tray. The resin recovery mechanism includes a resin recovery basin, which is located below the glue outlet.

[0021] Preferably, the upper glue tray, lower glue tray, trolley fixing glue plate, core mold glue plate one and core mold glue plate two are all inclined;

[0022] The second glue hole at one end of the lower glue tray is located above the trolley fixing glue plate, and one end of the trolley fixing glue plate extends into the upper position of the core mold glue plate one and the core mold glue plate two.

[0023] The beneficial effects of this invention are as follows: This invention can completely cover the resin dripping area of ​​the fiber winding machine, preventing dripping or scraped resin from falling to the ground and polluting the production environment; and it can automatically collect the resin from each bonding area for recycling and reuse, improving the resin reuse rate. Based on the movement characteristics of the reinforcing fibers during operation, the shape of each bonding area is designed to ensure that resin does not fall to the ground while minimizing the area occupied by each bonding area. By designing the fan-shaped moving bonding mechanism as a split structure, during operation, the fan-shaped moving bonding mechanism can cover the first fan-shaped bonding area, thus ensuring that resin dripping from the first bonding area does not fall to the ground. By designing the core mold bonding mechanism as a split structure, the length of the split core mold bonding mechanism can be adjusted to accommodate core molds of different lengths, thereby improving the versatility of this invention. Attached Figure Description

[0024] Figure 1 is a top view of the fiber winding machine.

[0025] Figure 2 is a schematic diagram of the principle of the resin recovery method in an embodiment of the present invention;

[0026] Figure 3 is a top view of the fiber winding resin recycling device after it is installed on the fiber winding machine in an embodiment of the present invention.

[0027] Figure 4 is a front view of the fiber winding resin recycling device after it is installed on the fiber winding machine in an embodiment of the present invention.

[0028] Figure 5 is a partial top view of the structure located at the fan-shaped movable adhesive receiving mechanism in Figure 3.

[0029] Figure 6 is a top view of the fan-shaped movable adhesive-receiving mechanism in an embodiment of the present invention when it moves back and forth to form a fan-shaped adhesive-receiving area.

[0030] Figure 7 is a partial front view of the structure located at the core mold in Figure 4;

[0031] Figure 8 is a schematic diagram of the right-side partial structure at the core mold in Figure 7;

[0032] In the diagram: 1. Reinforcing fiber, 2. Yarn frame, 3. Impregnation tank, 4. Winding carriage, 411. Yarn separator, 412. Yarn spreader, 5. Mandrel, 6. Head guide rail, 7. Head, 8. Glue receiving area one, 9. Glue receiving area two, 10. Glue receiving area three, 11. Fan-shaped moving glue receiving mechanism, 111. Glue receiving body, 1111. Main support, 1112. Upper glue receiving tray, 1113. Lower glue receiving tray, 112. Hinge mechanism one, 113. Hinge mechanism two, 12. Cart glue receiving mechanism, 121. Cart fixed glue receiving plate, 13. Mandrel glue receiving mechanism, 131. Mandrel glue receiving plate one, 132. Mandrel glue receiving plate two, 133. Middle glue receiving tray, 14. Resin recovery mechanism, 141. Resin recovery basin, 15. 16. Glue hole 1, 17. Glue hole 2. Detailed Implementation

[0033] The technical solution of the present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0034] Example: The applicant discovered through research that resin shedding begins after the reinforcing fiber 1 passes through the impregnation tank 3, mainly occurring in the area between the impregnation tank 3 and the mandrel 5. Therefore, as shown in Figure 2, a resin recycling method for a fiber winding machine involves setting three resin-receiving areas along the X direction in the area between the impregnation tank 3 and the mandrel 5: resin-receiving area one 8 located between the impregnation tank 3 and the winding carriage 4, resin-receiving area two 9 located at the winding carriage 4, and resin-receiving area three 10 located at the mandrel 5. During operation, resin-receiving area one 8 is used to collect the resin that has passed through the impregnation tank 3 and the winding carriage 4. The resin falling from the reinforcing fiber 1 is caught in the bonding area 2 9, which catches the resin falling from the reinforcing fiber 1 as it passes through the winding carriage 4. Resin falling from or scraped off the reinforcing fiber 1 wound on the mandrel 5 is caught in the bonding area 3 10. The resin caught in bonding area 1 8 is collected in bonding area 2 9, and then the resin in bonding area 2 9 is collected in bonding area 3 10. The applicant also provides a resin recycling area (not shown in the figure) to collect the resin in bonding area 3 10 for recycling. This design allows the entire resin-falling area of ​​the fiber winding machine to be covered, preventing dripping or scraped resin from falling to the ground and polluting the production environment. Furthermore, it automatically collects the resin from each bonding area for recycling, improving the resin reuse rate.

[0035] Based on the movement characteristics of the reinforcing fiber 1 during the working process, in the bonding area 8, since the impregnation tank 3 is fixed, the position A of the reinforcing fiber 1 located in the impregnation tank 3 is also fixed. However, the winding carriage 4 moves back and forth along the head guide rail 6 (Y direction). Therefore, the position B of the reinforcing fiber 1 located on the winding carriage 4 will also move back and forth between the two ends of the head guide rail 6, that is, between position B and position B′ in the figure, forming a sector ABB′ with a central angle of A. Therefore, the applicant designed the bonding area 8 as a sector-shaped area that matches the movement area of ​​the reinforcing fiber 1 located in the bonding area 8, so that the reinforcing fiber 1 located between the impregnation tank 3 and the core mold 5 is always in the sector-shaped bonding area 8 during the movement. In the second bonding area 9, the reinforcing fiber 1 moves back and forth with the winding carriage 4. Therefore, the second bonding area 9 is set as a rectangular area that matches the movement area of ​​the reinforcing fiber 1 within the second bonding area 9, so that the reinforcing fiber 1 on the winding carriage 4 remains within the second bonding area 9 during movement. In the third bonding area 10, since the reinforcing fiber 1 winds back and forth along the length direction (Y direction) of the mandrel 5, the third bonding area 10 is set as a rectangular area that matches the movement area of ​​the reinforcing fiber 1 within the third bonding area 10, so that the reinforcing fiber 1 on the mandrel 5 remains within the third bonding area 10 during movement. This design minimizes the area occupied by each bonding area while ensuring that the resin does not fall to the ground.

[0036] As shown in Figures 3 and 4, this embodiment also discloses a fiber winding resin recycling device using the resin recycling method of the fiber winding machine described above. It includes a fan-shaped movable glue-receiving mechanism 11 located in glue-receiving area 1 (8), a trolley glue-receiving mechanism 12 located in glue-receiving area 2 (9), and a core mold glue-receiving mechanism 13 located in glue-receiving area 3 (10). A resin recycling mechanism 14 is also provided in the resin recycling area. Vertically (Z-direction), the position of the fan-shaped movable glue-receiving mechanism 11 is higher than the position of the trolley glue-receiving mechanism 12, the position of the trolley glue-receiving mechanism 12 is higher than the position of the core mold glue-receiving mechanism 13, and the position of the core mold glue-receiving mechanism 13 is higher than the position of the resin recycling mechanism 14. This allows the collected resin to flow sequentially from the fan-shaped movable glue-receiving mechanism 11 to the trolley glue-receiving mechanism 12, then from the trolley glue-receiving mechanism 12 to the core mold glue-receiving mechanism 13, and finally from the core mold glue-receiving mechanism 13 to the resin recycling mechanism 14 for recycling.

[0037] As shown in Figure 5, the fan-shaped movable adhesive receiving mechanism 11 includes an adhesive receiving body 111 and a hinge mechanism 112 and a hinge mechanism 113 disposed at both ends of the adhesive receiving body 111. One end of the adhesive receiving body 111 is hinged to the impregnation tank 3 via the hinge mechanism 112, and the other end of the adhesive receiving body 111 is hinged to the winding carriage 4 via the hinge mechanism 113. In this embodiment, the hinge mechanism 112 and the hinge mechanism 113 adopt a shaft rotation bearing mechanism. During operation, the reinforcing fiber 1 is located above the adhesive receiving body 111. By hinged to the two ends of the adhesive receiving body with the impregnation tank and the winding carriage respectively, the adhesive receiving body can form a fan-shaped adhesive receiving area 1 (as shown by the dotted line in Figure 6) as the winding carriage moves back and forth, thereby ensuring that the resin in the adhesive receiving area 1 does not fall to the ground.

[0038] As shown in Figures 4 and 5, the adhesive receiving body 111 includes a main support 1111, an upper adhesive receiving tray 1112 and a lower adhesive receiving tray 1113 disposed on the main support 1111. Both the upper adhesive receiving tray 1112 and the lower adhesive receiving tray 1113 are made of stainless steel. The lower adhesive receiving tray 1113 is located below the upper adhesive receiving tray 1112 and is slidably connected to the main support 1111, so that the lower adhesive receiving tray 1113 can slide in a drawer-like manner below the upper adhesive receiving tray 1112. This design is because during operation, the winding carriage 4 sometimes needs to move a certain distance along the X direction at the end caps of the core mold 5. In addition, the fan-shaped inclined edge formed by the back-and-forth swing of the winding carriage 4 causes the distance between the winding carriage 4 and the impregnation tank 3 to increase or decrease during operation. Therefore, in this embodiment, the lower glue receiving tray 1113 is designed as a drawer-type sliding position below the upper glue receiving tray 1112. This ensures that the fan-shaped moving glue receiving mechanism 11 is always positioned below the added fiber 1, thereby ensuring that the resin will not fall to the ground.

[0039] A hinge mechanism 112 is mounted on one end of the main support 1111, and a hinge mechanism 113 is mounted on one end of the lower adhesive tray 1113. One end of the main support 1111 is hinged to the impregnation tank 3 via the hinge mechanism 112, and one end of the lower adhesive tray 1113 is hinged to the winding trolley 4 via the hinge mechanism 113. A caster wheel 15 is also provided at the bottom of the main support 1111 to support the main support 1111 on the ground.

[0040] Both the upper glue receiving tray 1112 and the lower glue receiving tray 1113 are inclined, with an inclination angle of 2° to 10°. A first glue outlet 16 is provided at one end of the bottom of the upper glue receiving tray 1112, and a second glue outlet 17 is provided at one end of the bottom of the lower glue receiving tray 1113. This arrangement facilitates the flow of resin received on the upper glue receiving tray 1112 into the lower glue receiving tray 1113 through the first glue outlet 16, and the resin in the lower glue receiving tray 1113 then flows into the trolley glue receiving mechanism 12 through the second glue outlet 17.

[0041] As shown in Figure 7, the trolley glue receiving mechanism 12 includes a trolley fixed glue receiving plate 121, which is made of stainless steel and is fixed to the bottom of the winding trolley 4. During operation, the glue outlet 17 of the lower glue receiving tray 1113 is always positioned above the trolley fixed glue receiving plate 121 to ensure that the resin in the lower glue receiving tray 1113 can always flow into the trolley fixed glue receiving plate 121. The trolley fixed glue receiving plate 121 is also inclined, with an inclination angle of 2° to 10°. Its lower end extends into the upper position of the core mold glue receiving mechanism 13 so that the resin on the trolley fixed glue receiving plate 121 can flow into the core mold glue receiving mechanism 13.

[0042] As shown in Figures 7 and 8, the core mold receiving mechanism 13 includes a first core mold receiving plate 131 and a second core mold receiving plate 132 disposed below the core mold 5. A gap L is left between one end of the first core mold receiving plate 131 and one end of the second core mold receiving plate 132. An intermediate receiving tray 133 is disposed at one end of the first core mold receiving plate 131 and below the second core mold receiving plate 132, located at the gap L. A glue outlet is provided on the intermediate receiving tray 133. The resin recovery mechanism 14 includes a resin recovery basin 141, which is located below the glue outlet. The first core mold receiving plate 131, the second core mold receiving plate 132, the intermediate receiving tray 133, and the resin recovery basin 141 are all made of stainless steel. The core mold receiving plate 131, the second core mold receiving plate 132, and the intermediate receiving tray 133 are positioned below the core mold 5, covering the entire length of the core mold 5, allowing resin falling from the core mold 5 to flow into the core mold receiving mechanism 13. The core mold receiving plates are designed as a split structure primarily to accommodate core molds 5 of different lengths. When the length of the core mold 5 varies, the gap L between the first core mold receiving plate 131 and the second core mold receiving plate 132 can be adjusted to ensure coverage of the entire length of the core mold 5, thereby improving the versatility of this embodiment.

[0043] Both the first mandrel receiving plate 131 and the second mandrel receiving plate 132 are inclined, with an inclination angle of 2° to 10°. This facilitates the flow of resin from the gap L between the first mandrel receiving plate 131 and the second mandrel receiving plate 132 into the intermediate receiving tray 133, and then through the resin outlet of the intermediate receiving tray 133 into the resin recovery basin 141. The resin that is easily recovered flows into the resin recovery basin 904, and is then recycled to the impregnation tank 3 for winding production. One end of the carriage fixing receiving plate 121 extends into the gap H between the first mandrel receiving plate 131, the second mandrel receiving plate 132, and the mandrel 5. During operation, one end of the carriage fixing receiving plate 121 always moves back and forth above the first mandrel receiving plate 131 and the second mandrel receiving plate 132 to ensure that the resin on the carriage fixing receiving plate 121 can flow into the mandrel receiving mechanism 13.

[0044] In summary, this invention can completely cover the resin spill area of ​​the fiber winding machine, preventing dripping or scraped resin from falling onto the ground and polluting the production environment. Furthermore, it can automatically collect the resin from each splicing area for recycling and reuse, improving the resin reuse rate. Based on the movement characteristics of the reinforcing fibers during operation, the shape of each splicing area is designed to minimize the area occupied by each splicing area while ensuring that resin does not fall to the ground. By designing the fan-shaped moving splicing mechanism as a split structure, it can cover the first fan-shaped splicing area during operation, thus preventing resin spilled in the first splicing area from falling to the ground. By designing the mandrel splicing mechanism as a split structure, the length of the split mandrel splicing mechanism can be adjusted to accommodate mandrels of different lengths, thereby improving the versatility of this invention.

[0045] In this embodiment, "multiple" refers to "two or more". The above embodiments are for illustrative purposes only and are not intended to limit the invention. Those skilled in the art can make various changes or modifications without departing from the spirit and scope of the invention. Therefore, all equivalent technical solutions should also fall within the protection scope of this invention, which is defined by the claims.

Claims

1. A method for resin recycling from a fiber winding machine, characterized in that: Three resin receiving areas are set between the impregnation tank (3) and the mandrel (5) of the fiber winding machine: resin receiving area one (8) between the impregnation tank (3) and the winding carriage (4), resin receiving area two (9) at the winding carriage (4), and resin receiving area three (10) at the mandrel (5). During operation, resin receiving area one (8) is used to catch the resin falling from the reinforcing fiber (1) passing between the impregnation tank (3) and the winding carriage (4), resin receiving area two (9) is used to catch the resin falling from the reinforcing fiber (1) passing through the winding carriage (4), and resin receiving area three (10) is used to catch the resin falling from or scraping off the reinforcing fiber (1) that is wound on the mandrel (5). The resin is collected in the first (8) bonding area and then collected in the second (9) bonding area. The resin in the second (9) bonding area is then collected in the third (10) bonding area. The resin recycling method also includes setting a resin recycling area at the fiber winding machine and collecting the resin in the third (10) bonding area in the resin recycling area for recycling and reuse. The first (8) bonding area is designed as a fan-shaped area that matches the movement area of ​​the reinforcing fiber (1) located in the first (8) bonding area, so that the reinforcing fiber (1) located between the impregnation tank (3) and the winding trolley (4) is always in the fan-shaped first (8) bonding area during the movement. The second (9) bonding area is set as a fan-shaped area that matches the movement area of ​​the reinforcing fiber (1) located in the second (9) bonding area. A rectangular region matching the movement area of ​​the reinforcing fiber (1) is provided, so that the reinforcing fiber (1) on the winding carriage (4) is always in the bonding area two (9) during the movement; the bonding area three (10) is set as a rectangular region matching the movement area of ​​the reinforcing fiber (1) in the bonding area three (10), so that the reinforcing fiber (1) on the mandrel (5) is always in the bonding area three (10) during the movement; a fan-shaped moving bonding mechanism (11) is provided in the bonding area one (8), the fan-shaped moving bonding mechanism (11) is designed as a split structure, the length of the split fan-shaped moving bonding mechanism (11) can be relatively increased or decreased, and the two sides of the split fan-shaped moving bonding mechanism (11) are... The ends are respectively hinged to the impregnation tank (3) and the winding trolley (4); during operation, under the drive of the winding trolley (4), the length of the split-structure fan-shaped moving adhesive receiving mechanism (11) can be relatively increased or decreased, so that the movement trajectory of the fan-shaped moving adhesive receiving mechanism (11) can cover the fan-shaped adhesive receiving area (8); the fan-shaped moving adhesive receiving mechanism (11) includes an adhesive receiving body (111) and a hinge mechanism one (112) and a hinge mechanism two (113) set on both ends of the adhesive receiving body (111). One end of the adhesive receiving body (111) is hinged to the impregnation tank (3) through the hinge mechanism one (112), and the other end of the adhesive receiving body (111) is hinged to the winding trolley (4) through the hinge mechanism two (113);The adhesive receiving body (111) includes a main support (1111), an upper adhesive receiving tray (1112) and a lower adhesive receiving tray (1113) disposed on the main support (1111). The upper adhesive receiving tray (1112) and the lower adhesive receiving tray (1113) are respectively provided with a first adhesive hole (16) and a second adhesive hole (17) at one end. The lower adhesive receiving tray (1113) is located below the upper adhesive receiving tray (1112) and the lower adhesive receiving tray (1113) is located below the upper adhesive receiving tray (1112). The sliding connection is made on the main support (1111). A first hinge mechanism (112) is located at one end of the main support (1111), and a second hinge mechanism (113) is located at one end of the lower adhesive tray (1113). One end of the main support (1111) is hinged to the impregnation tank (3) via the first hinge mechanism (112), and one end of the lower adhesive tray (1113) is hinged to the winding trolley (4) via the second hinge mechanism (113).

2. The resin recycling method according to claim 1, characterized in that: A core mold adhesive receiving mechanism (13) is provided in the adhesive receiving area three (10). The core mold adhesive receiving mechanism (13) is also designed as a split structure. The length of the split core mold adhesive receiving mechanism (13) can also be adjusted. By adjusting the length of the core mold adhesive receiving mechanism (13), it can be adapted to core molds (5) of different lengths.

3. A fiber-wound resin recycling device using the resin recycling method according to claim 1 or 2, characterized in that: The system includes a fan-shaped moving glue-receiving mechanism (11) located in glue-receiving area one (8), a trolley glue-receiving mechanism (12) located in glue-receiving area two (9), and a core mold glue-receiving mechanism (13) located in glue-receiving area three (10). A resin recycling mechanism (14) is also provided in the resin recycling area. Vertically, the position of the fan-shaped moving glue-receiving mechanism (11) is higher than the position of the trolley glue-receiving mechanism (12), and the position of the trolley glue-receiving mechanism (12) is higher than the position of the core mold glue-receiving mechanism (13). The position of the structure (13) is higher than that of the resin recycling mechanism (14), so that the received resin can flow sequentially from the fan-shaped moving glue receiving mechanism (11), the trolley glue receiving mechanism (12), and the core mold glue receiving mechanism (13) into the resin recycling mechanism (14) for recycling; the fan-shaped moving glue receiving mechanism (11) includes a glue receiving body (111) and a hinge mechanism one (112) and a hinge mechanism two (113) provided at both ends of the glue receiving body (111). One end of the glue receiving body (111) is hinged. Mechanism 1 (112) is hinged to the impregnation tank (3), and the other end of the glue receiving body (111) is hinged to the winding trolley (4) through hinge mechanism 2 (113); the glue receiving body (111) includes a main support (1111), an upper glue receiving tray (1112) and a lower glue receiving tray (1113) provided on the main support (1111), and a lower glue receiving tray (1113) respectively provided at one end of the upper glue receiving tray (1112) and the lower glue receiving tray (1113). Located below the upper adhesive tray (1112) and with the lower adhesive tray (1113) slidably connected to the main support (1111), the first hinge mechanism (112) is set on one end of the main support (1111), and the second hinge mechanism (113) is set on one end of the lower adhesive tray (1113). One end of the main support (1111) is hinged to the impregnation tank (3) through the first hinge mechanism (112), and one end of the lower adhesive tray (1113) is hinged to the winding trolley (4) through the second hinge mechanism (113).

4. The fiber-wound resin recycling device according to claim 3, characterized in that: The trolley glue receiving mechanism (12) includes a trolley fixed glue receiving plate (121), which is fixed to the bottom of the winding trolley (4).

5. The fiber-wound resin recycling device according to claim 4, characterized in that: The core mold glue receiving mechanism (13) includes a core mold glue receiving plate one (131) and a core mold glue receiving plate two (132) located below the core mold (5). A gap L is left between one end of the core mold glue receiving plate one (131) and one end of the core mold glue receiving plate two (132). An intermediate glue receiving tray (133) is provided below the core mold glue receiving plate one (131) and the core mold glue receiving plate two (132) and located at the gap L. A glue outlet is provided on the intermediate glue receiving tray (133). The resin recycling mechanism (14) includes a resin recycling basin (141) located below the glue outlet.

6. The fiber-wound resin recycling device according to claim 5, characterized in that: The upper glue receiving tray (1112), lower glue receiving tray (1113), trolley fixed glue receiving plate (121), core mold glue receiving plate one (131) and core mold glue receiving plate two (132) are all inclined; the lower glue hole two (17) at one end of the lower glue receiving tray (1113) is located above the trolley fixed glue receiving plate (121), and one end of the trolley fixed glue receiving plate (121) extends into the position above the core mold glue receiving plate one (131) and the core mold glue receiving plate two (132).

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