Wind turbine blade integrated solid waste recycling equipment and method

Abstract

The present invention discloses an integrated solid waste recycling device for wind turbine blades and a method thereof, which belongs to the technical field of waste wind turbine blade processing, and includes a feeding channel: a flat-laying feeding assembly for evenly spreading materials and pushing out finished products is provided below the feeding channel; a heating forming assembly for hot pressing is provided at the discharge end of the flat-laying feeding assembly; the heating forming assembly includes a column, a support box, a support plate, a lower die seat, a linkage ejection assembly, an extrusion assembly, a first heat-conducting assembly and a second heat-conducting assembly; the support box is symmetrically fixedly connected with four groups of identical columns, the top of the column is connected with an extrusion assembly, the middle end of the column is fixedly connected with a support plate, the top of the support plate is connected with a lower die seat used in conjunction with the extrusion assembly, and the extrusion assembly is connected with a linkage ejection assembly for ejecting finished products. The present invention has the following technical effects: the present invention is conducive to the extrusion assembly being in a heat-insulating state, is conducive to the rapid heating of the extrusion assembly in the later stage, and improves the molding efficiency.

Description

Technical Field

[0001] The present invention relates to the technical field of waste wind turbine blade processing, and in particular to a wind turbine blade integrated solid waste recycling device and a method thereof. Background Art

[0002] Wind turbine blades usually use glass fiber reinforced epoxy resin as raw material, which is a thermosetting composite material. The original properties of the material cannot be restored after curing and molding. There are two ways to recycle wind turbine blades. One is to extract the raw materials by chemical methods for reuse, and the other is to crush the wind turbine blades and heat and extrude them into various supporting parts. Heating and extruding molding is conducive to the resin to produce viscosity after heating to bond other components.

[0003] Chinese patent CN115716346B discloses a waste FRP wind turbine blade recycling production line and its recycling method. The recycling production line includes: a cutting line, which is used to cut the waste FRP wind turbine blades into lengths of 0.5 to 1m to obtain wind turbine blade fragments; a crushing line, which is used to crush the wind turbine blade fragments to obtain a mixture of thermosetting resin particles and reinforced glass fibers; a sorting line, which is used to use a hydraulic flotation method on the mixture, inject a water medium into the mixture, and then separate the thermosetting resin, reinforced glass fibers and the water medium from each other; a molding line, which is used to mix the thermosetting resin particles with a thermoplastic resin and manufacture recycled plates through a hot molding process; and the reinforced glass fibers are collected as raw materials for manufacturing wind turbine blades. It solves the problem of a large number of waste FRP wind turbine blades, which are large in size and difficult to recycle, and is conducive to saving resources, protecting the environment, and achieving sustainable development of the wind power industry.

[0004] The above patent adopts the existing conventional molding line (CN116116865A), but the existing molding line cannot spread the material evenly when loading, and requires additional operation. At the same time, the upper mold and the lower mold need to be designed with separate heating components, and the overall design is complicated. In addition, the finished product cannot be automatically discharged.

[0005] Based on this, the present invention designs a wind turbine blade integrated solid waste recycling device and method to solve the above problems. Summary of the invention

[0006] In view of the above-mentioned shortcomings of the prior art, the present invention provides a wind turbine blade integrated solid waste recycling device and method.

[0007] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0008] A wind turbine blade integrated solid waste recycling device, comprising a feeding channel:

[0009] A flat-laying feeding assembly is provided below the feeding channel for evenly spreading the material and pushing out the finished product;

[0010] A heating type forming component for hot pressing forming is provided at the discharge end of the flat feeding component;

[0011] The heating type forming assembly includes a column, a supporting box, a supporting plate, a lower die base, a linkage type ejection assembly, an extrusion assembly, a first heat conducting assembly and a second heat conducting assembly;

[0012] The support box is symmetrically and fixedly connected with four groups of identical columns, the top of the column is connected with an extrusion assembly, the middle end of the column is fixedly connected with a support plate, the top of the support plate is connected with a lower die base used in conjunction with the extrusion assembly, the extrusion assembly is connected with a linkage ejection assembly for ejecting a finished product, the ejection end of the linkage ejection assembly is movably connected with the lower die base, when the linkage ejection assembly is located at the lower end, the top of the linkage ejection assembly, the lower die base and the extrusion assembly are combined into a complete extrusion molding assembly, the lower die base is connected with a first heat-conducting assembly, and the first heat-conducting assembly is connected with the output end and the input end of the external heating equipment, the extrusion assembly is connected with the second heat-conducting assembly, when the lower die base and the extrusion assembly are in contact, the first heat-conducting assembly and the second heat-conducting assembly are turned on, the heating medium enters the second heat-conducting assembly through the first heat-conducting assembly and then flows back from the first heat-conducting assembly to heat the lower die base and the extrusion assembly, and the heated lower die base and the extrusion assembly cooperate with the ejection end of the linkage ejection assembly to perform high-temperature rapid molding.

[0013] Furthermore, the flat-laying feeding component includes a translation component, a shaking component, a weighing component, a spreading component and a pushing component. The driving end of the translation component is connected to the shaking component, the bottom of the shaking component is connected to the weighing component, the sensing end of the weighing component is connected to the spreading component, and the spreading component is connected to the pushing component at equal intervals near the end face of the heating forming component.

[0014] Furthermore, the translation assembly includes a support frame, a linear module and a side plate. The linear module is symmetrically installed on the top of the support frame. The driving end of the linear module is fixedly connected to the side plate. The ends of the linear module and the side plate close to the heating forming assembly are connected to the shaking assembly.

[0015] Furthermore, the shaking assembly includes a straight slide plate, a connecting block, a wave plate, a second spring, a rolling bearing and a cross support rod. The wave plate is fixedly installed on the top of the linear module, the connecting block is fixedly installed on the inner wall of the end of the side plate close to the heating forming assembly, the connecting block is slidingly connected to the straight slide plate through a straight sliding hole, the outer side wall of the top of the straight slide plate is fixedly connected to the cross support rod, the outer end of the cross support rod is fixedly connected to a rolling bearing used in conjunction with the wave plate, the second spring is symmetrically connected to the bottom of the connecting block, and the second spring and the bottom of the straight slide plate are both connected to the top of the weighing assembly.

[0016] Furthermore, the weighing assembly includes a weighing instrument, the top of the weighing instrument is fixedly connected to the second spring and the bottom of the straight slide plate, and the weighing instrument is connected to the balancing assembly.

[0017] Furthermore, the balancing component includes a box body, a connecting shaft, a cylinder, a guide rail assembly, a tooth plate, a gear ring and a rotating plate, the sensing ends of the two sets of weighing instruments are respectively fixedly connected to the two side walls of the box body, a cylinder is installed on the side of the box body away from the heating type forming assembly, a tooth plate is connected to the cylinder driving end, the tooth plate is fixedly connected to the slider of the guide rail assembly, the guide rail of the guide rail assembly is fixedly connected to the side wall of the box body, the tooth plate is meshed and connected with the gear ring at equal intervals, a connecting shaft is installed in the mounting hole of the gear ring, the connecting shaft is located in the box body The part is fixedly connected with the rotating plate, when all the rotating plates are in a horizontal state, all the ends of the rotating plates are in contact with each other and all the rotating plates form a complete set of flat plates to block the lower end of the box body, and the end of the box body close to the heating type forming assembly is connected with a pusher assembly at equal intervals;

[0018] The top of the linkage ejector assembly is always set lower than the bottom of the box.

[0019] Furthermore, the pushing assembly includes an inverted L-shaped pushing plate and an inclined guide plate. The end face of the box body close to the heating forming assembly is fixedly connected with the inverted L-shaped pushing plate, and the end of the inverted L-shaped pushing plate close to the heating forming assembly is connected with the inclined guide plate, and the inclined guide plate is offset from the top of the linkage ejection assembly.

[0020] Furthermore, the extrusion assembly includes a hydraulic press, a sliding plate and an upper die seat, the hydraulic press is symmetrically installed on the top of the support box, the driving end of the hydraulic press is connected to the sliding plate, and the sliding plate is slidably connected to the column through a sliding hole, the bottom of the sliding plate is fixedly connected to the upper die seat, the sliding plate is connected to the linkage ejection assembly, and the upper die seat is connected to the second heat conduction assembly;

[0021] The linkage ejection assembly includes a push block, a groove, a steel rope, a straight plate, a cross plate, a through hole and a straight slide groove. The steel ropes are symmetrically installed at the bottom of the sliding plate. The bottom of the steel rope is fixedly connected to the two ends of the top of the cross plate. The top of the cross plate is fixedly connected with straight plates at equal intervals. The top of the straight plate is fixedly connected with a push block. The support plate and the lower die seat are both provided with straight slide grooves. The lower die seat is provided with a groove at the top of the straight slide groove. The straight plate is fitted and slidably connected with the straight slide groove. The push block and the groove are plugged in. Through holes are provided at both ends of the support plate, and the steel rope moves in the through holes.

[0022] Furthermore, the first heat-conducting component includes a liquid outlet pipe, a liquid outlet pipe mounting seat, a conical bucket, a first L-shaped pipeline, a feed pipe, a second oil guide channel, a first cross block and a push rod, a second oil guide channel is opened in the lower die seat, the lower die seat is respectively fixedly connected with the feed pipe and the first L-shaped pipeline at both ends of the second oil guide channel, the lower die seat is fixedly connected with a liquid outlet pipe mounting seat near the side wall of the feed pipe, a liquid outlet pipe is installed in the liquid outlet pipe mounting seat, the liquid outlet pipe and the inner wall of the upright part of the first L-shaped pipeline are fixedly connected with the first cross block, the middle end of the top of the first cross block is fixedly connected with the push rod, the liquid outlet pipe, the push rod and the upright part of the first L-shaped pipeline are connected with the second heat-conducting component, and the liquid outlet pipe and the outer wall of the upright part of the first L-shaped pipeline are fixedly connected with a conical bucket for collecting liquid;

[0023] The second heat-conducting component includes a second L-shaped pipe, a third L-shaped pipe, a first oil guide channel, a first spring, a second cross block, an annular plate, a conical groove, a conical blocking block and a slide plate. The upper mold seat is provided with a first oil guide channel. The upper mold seat is fixedly connected with the second L-shaped pipe and the third L-shaped pipe at both ends of the first oil guide channel, respectively. The upright part of the second L-shaped pipe is arranged opposite to the upright part of the liquid outlet pipe, and the upright part of the third L-shaped pipe is arranged opposite to the upright part of the first L-shaped pipe. The upright parts of the second L-shaped pipe and the third L-shaped pipe are fixedly connected with the annular plate and the second cross block in sequence from bottom to top. Conical grooves are provided on the upper and lower end surfaces of the annular plate. The first spring is fixedly connected to the top of the second cross block, and the slide plate is fixedly connected to the top of the first spring. The bottom of the slide plate passes through the second cross block and is fixedly connected with a conical blocking block used in conjunction with the conical groove at the upper end.

[0024] In order to better achieve the purpose of the present invention, the present invention also provides a method for using a wind turbine blade integrated solid waste recycling device, comprising the following steps:

[0025] Step 1: The linear module of the translational assembly of the flat feeding assembly drives the side plate to move away from the heating forming assembly, and the side plate drives the box to move below the feeding channel. The hydraulic press of the extrusion assembly drives the sliding plate to move downward, and the sliding plate drives the upper die seat to move downward until it contacts the lower die seat. The sliding plate drives the second L-shaped pipe and the third L-shaped pipe of the second heat-conducting assembly to move downward, and the second L-shaped pipe and the third L-shaped pipe move downward until they are in contact with the liquid outlet pipe and the first L-shaped pipe. The push rod pushes the conical sealing block to move upward, and the gap between the conical sealing block and the annular plate is a flow channel. At this time, the first heat-conducting assembly and the second heat-conducting assembly are automatically connected, and the heating medium enters the second heat-conducting assembly through the feeding pipe of the first heat-conducting assembly. The oil flows into the second oil guide channel, then into the first L-shaped pipeline, passes through the gap between the conical sealing block and the annular plate, enters the third L-shaped pipeline of the second heat-conducting component, then enters the first oil guide channel, and then enters the second L-shaped pipeline, and then enters the outlet pipe of the first heat-conducting component from the gap between the conical sealing block and the annular plate and flows back to the external heating equipment. The flowing heating medium heats the lower die seat and the upper die seat. The heated lower die seat and the upper die seat cooperate with the push block for high-temperature rapid molding. After molding, the hydraulic press of the extrusion component drives the sliding plate to move upward, the sliding plate drives the upper die seat to move upward, drives the steel rope of the linkage ejection component to move upward, the steel rope drives the cross plate to move upward, and the cross plate drives the straight plate along The straight slide moves upward, and the straight slide drives the push block to move upward. The push block of the linkage ejection assembly ejects the finished product in the lower die seat. When the upper die seat moves upward, the second L-shaped pipe and the third L-shaped pipe move upward. After the conical blocking block is separated from the push rod, the first spring drives the slide plate to move downward, and the slide plate drives the conical blocking block to block the conical groove at the upper end. The second heat conduction component and the first heat conduction component are automatically separated to block the second L-shaped pipe and the third L-shaped pipe. The first oil conduction channel of the upper die seat contains heating medium. At the same time, the feeding channel adds the material into the box body. The weighing instrument of the weighing component weighs the weight of the material in the box body. Then the linear module of the translation component drives the side plate to move toward the heating type forming component. The side plate drives the connecting block to move, the connecting block drives the straight slide to move, the straight slide drives the horizontal support rod to move, the horizontal support rod drives the rolling bearing to move along the wave plate, when the rolling bearing contacts the protruding part of the wave plate, the straight slide moves upward and the second spring is compressed, the straight slide and the second spring drive the box to move upward, when the rolling bearing contacts the concave part of the wave plate, the second spring restoring force pushes the box to move upward, realizing the box shaking process, the box shaking process realizes that the material in the box is evenly spread in the box, when the box moves horizontally, the box drives the inverted L-shaped push plate and the inclined guide plate of the push assembly to move, the inverted L-shaped push plate pushes the finished product on the top of the linkage ejection assembly, and then guides it to the external output structure through the inclined guide plate;

[0026] Step 2: The hydraulic press of the extrusion assembly of the heated forming assembly drives the sliding plate to move downward for a distance, the horizontal plate of the linkage ejection assembly moves downward, the horizontal plate drives the straight plate to move downward along the straight slide groove, the straight plate drives the push block to be inserted into the groove, and the groove moves to the bottom by its own gravity;

[0027] Step 3: The box body continues to move toward the heated forming assembly to just above the lower die seat, the cylinder of the spreading assembly drives the toothed plate to move along the guide rail assembly, the guide rail assembly drives the gear ring to rotate, the gear ring drives the connecting shaft to rotate, the connecting shaft drives the rotating plate to rotate to a vertical state, and the material in the box body falls into the lower die seat through the gap between the rotating plates in the vertical state. After being flattened, the material falls into the lower die seat through multiple channels formed by multiple rotating plates;

[0028] Step 4: Repeat steps 1-3.

[0029] The present invention has the following technical effects: the flat-laying feeding component of the present invention returns to the bottom of the feeding channel, and the extrusion component of the heating forming component moves to contact the lower die seat. At this time, the first heat-conducting component and the second heat-conducting component are connected, and the heating medium enters the second heat-conducting component through the first heat-conducting component and then flows back from the first heat-conducting component to heat the lower die seat and the extrusion component. The heated lower die seat and the extrusion component cooperate with the ejection end of the linkage ejection component to perform high-temperature rapid molding. After molding, the extrusion component moves upward to drive the linkage ejection component to move upward, and the linkage ejection component ejects the finished product in the lower die seat. At the same time, the feeding channel delivers the material to the flat-laying feeding component , the extrusion component of the heated molding component moves downward for a distance, and the linkage ejection component moves to the lowest end by its own gravity; the feeding channel sends the material to the flat feeding component, and the flat feeding component evenly spreads the material into the lower die seat, and then repeats the above actions to realize the linkage heating of the lower die seat and the extrusion component, and the heating medium is stored in the memory after the extrusion component is separated from the lower die seat, which is beneficial for the extrusion component to be in a heat preservation state, which is beneficial for the rapid heating of the extrusion component in the later stage, and improves the molding efficiency. At the same time, it is convenient for the automatic ejection of the finished product. In addition, the flat feeding component realizes the uniform spreading of the material in the lower die seat, and the finished product above the lower die seat is automatically discharged, which is beneficial for actual use. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the prior art descriptions are briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention, and for ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0031] Figure 1 A wind turbine blade integrated solid waste recycling device of the present invention is provided. Figure 1 ;

[0032] Figure 2 A wind turbine blade integrated solid waste recycling device of the present invention is provided. Figure 2 ;

[0033] Figure 3 A wind turbine blade integrated solid waste recycling device of the present invention is provided. Figure 3 ;

[0034] Figure 4 The flat feed assembly structure is three-dimensional Figure 1 ;

[0035] Figure 5 The flat feed assembly structure is three-dimensional Figure 2 ;

[0036] Figure 6 The flat feed assembly structure is three-dimensional Figure 3 ;

[0037] Figure 7 Three-dimensional heating molding components Figure 1 ;

[0038] Figure 8 Three-dimensional heating molding components Figure 2 ;

[0039] Fig. 9 It is a front view of the heated molding component;

[0040] Fig.10 This is the left view of the heated molding component;

[0041] Fig.11 Three-dimensional heating molding components Figure 3 ;

[0042] Fig.12 For along Fig.10 AA direction cross-sectional view;

[0043] Fig.13 for Fig.12 A magnified view of the structure at B;

[0044] Fig.14 for Fig.12 Enlarged view of the structure at location C.

[0045] The numbers in the figure represent:

[0046] 1. Feeding channel 2. Heating type forming assembly 21. Column 22. Support box 23. Hydraulic press 24. Sliding plate 25. Support plate 26. Lower die seat 27. Liquid outlet pipe 28. Liquid outlet pipe mounting seat 29. Upper die seat 210. Push block 211. Conical bucket 212. First L-shaped pipe 213. Groove 214. Feeding pipe 215. Steel rope 216. Second L-shaped pipe 217. Third L-shaped pipe 218. Straight plate 219. Horizontal plate 220. Through hole 221. Straight slide 222. First oil guide channel 223. Second oil guide channel 224. First horizontal block 225. Push rod 226. First spring 227. Second cross block 228. Annular plate 229. Conical groove 230. Conical blocking block 231. Slide plate 3. Flat feed assembly 31. Support frame 32. Linear module 33. Box body 34. Side plate 35. Straight slide plate 36. Connecting block 37. Wave plate 38. Inverted L-shaped push plate 39. Inclined guide plate 310. Connecting shaft 311. Cylinder 312. Guide rail assembly 313. Tooth plate 314. Gear ring 315. Weighing instrument 316. Second spring 317. Rolling bearing 318. Cross support rod 319. Rotating plate. DETAILED DESCRIPTION

[0047] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0048] The present invention will be further described below in conjunction with the embodiments.

[0049] Example 1: Please refer to Figure 1-Figure 14 , a wind turbine blade integrated solid waste recycling device, comprising a feeding channel 1:

[0050] A flat-laying feeding assembly 3 for evenly spreading the material and pushing out the finished product is provided below the feeding channel 1;

[0051] A heating type forming component 2 for hot pressing forming is provided at the discharge end of the flat feeding component 3;

[0052] The heating type forming assembly 2 comprises a column 21, a supporting box 22, a supporting plate 25, a lower die base 26, a linkage type ejection assembly, an extrusion assembly, a first heat conducting assembly and a second heat conducting assembly;

[0053] The support box 22 is symmetrically and fixedly connected with four groups of identical columns 21, the top of the column 21 is connected with an extrusion assembly, the middle end of the column 21 is fixedly connected with a support plate 25, the top of the support plate 25 is connected with a lower die seat 26 used in conjunction with the extrusion assembly, the extrusion assembly is connected with a linkage ejection assembly for ejecting finished products, the ejection end of the linkage ejection assembly is movably connected with the lower die seat 26, when the linkage ejection assembly is located at the lower end, the top of the linkage ejection assembly, the lower die seat 26 and the extrusion assembly are combined into a complete extrusion molding assembly, the lower die seat 26 is connected with a first heat-conducting assembly, and the first heat-conducting assembly is connected with the output end and the input end of the external heating device, the extrusion assembly is connected with the second heat-conducting assembly, when the lower die seat 26 and the extrusion assembly are in contact, the first heat-conducting assembly and the second heat-conducting assembly are conductive, the heating medium enters the second heat-conducting assembly through the first heat-conducting assembly and then flows back from the first heat-conducting assembly to heat the lower die seat 26 and the extrusion assembly, the heated lower die seat 26 and the extrusion assembly cooperate with the ejection end of the linkage ejection assembly to perform high-temperature rapid molding;

[0054] The flat-laying feeding component 3 returns to the bottom of the feeding channel 1, and the extrusion component of the heated molding component 2 moves to contact the lower mold base 26. At this time, the first heat-conducting component and the second heat-conducting component are connected, and the heating medium enters the second heat-conducting component through the first heat-conducting component and then flows back from the first heat-conducting component to heat the lower mold base 26 and the extrusion component. The heated lower mold base 26 and the extrusion component cooperate with the ejection end of the linkage ejection component to perform high-temperature rapid molding. After molding, the extrusion component moves upward to drive the linkage ejection component to move upward, and the linkage ejection component ejects the finished product in the lower mold base 26. At the same time, a certain amount of material is filled in the flat-laying feeding component 3, and then the flat-laying feeding component 3 moves toward the heated molding component 2, and the flat-laying feeding component 3 ejects the heated molding component. 2 The finished product ejected is pushed out from the heated forming component 2, the extrusion component of the heated forming component 2 moves downward for a distance, and the linkage ejection component moves to the lowest end by its own gravity; the feeding channel 1 delivers the material to the flat feeding component 3, and the flat feeding component 3 evenly spreads the material into the lower die base 26, and then repeats the above actions to realize the linkage heating of the lower die base 26 and the extrusion component, and the heating medium is stored in the extrusion component after the separation from the lower die base 26, which is beneficial for the extrusion component to be in a heat preservation state, which is beneficial for the rapid heating of the extrusion component in the later stage, and improves the forming efficiency. At the same time, it is convenient for the finished product to be automatically ejected. In addition, the flat feeding component 3 realizes the uniform spreading of the material in the lower die base 26, and the finished product above the lower die base 26 is automatically discharged, which is beneficial for actual use.

[0055] The flat feeding component 3 returns to the bottom of the feeding channel 1, and the extrusion component of the heated molding component 2 moves to contact the lower mold base 26. At this time, the first heat-conducting component and the second heat-conducting component are connected, and the heating medium enters the second heat-conducting component through the first heat-conducting component and then flows back from the first heat-conducting component to heat the lower mold base 26 and the extrusion component. The heated lower mold base 26 and the extrusion component cooperate with the ejection end of the linkage ejection component to perform high-temperature rapid molding. After molding, the extrusion component moves upward to drive the linkage ejection component to move upward, and the linkage ejection component ejects the finished product in the lower mold base 26. At the same time, the feeding channel 1 delivers the material to the flat feeding component 3, and the heated molding component 2 The extrusion assembly moves downward for a distance, and the linkage ejection assembly moves to the lowest end by its own gravity; the feeding channel 1 delivers the material to the flat feeding assembly 3, and the flat feeding assembly 3 evenly spreads the material into the lower die base 26, and then repeats the above actions to realize the linkage heating of the lower die base 26 and the extrusion assembly, and after the extrusion assembly is separated from the lower die base 26, there is a heating medium in the memory, which is beneficial for the extrusion assembly to be in a heat preservation state, which is beneficial for the rapid heating of the extrusion assembly in the later stage, and improves the molding efficiency. At the same time, it is convenient for the finished product to be automatically ejected. In addition, the flat feeding assembly 3 realizes the uniform spreading of the material in the lower die base 26, and the finished product above the lower die base 26 is automatically discharged, which is beneficial for actual use.

[0056] See also Figure 1-Figure 6 The flat feeding assembly 3 includes a translation assembly, a shaking assembly, a weighing assembly, an averaging assembly and a pushing assembly. The driving end of the translation assembly is connected to the shaking assembly, the bottom of the shaking assembly is connected to the weighing assembly, the sensing end of the weighing assembly is connected to the averaging assembly, and the end surface of the averaging assembly close to the heating forming assembly 2 is connected to the pushing assembly at equal intervals;

[0057] The translation assembly includes a support frame 31, a linear module 32 and a side plate 34. The linear module 32 is symmetrically mounted on the top of the support frame 31. The driving end of the linear module 32 is fixedly connected to the side plate 34. The ends of the linear module 32 and the side plate 34 close to the heating type forming assembly 2 are connected to the shaking assembly.

[0058] The shaking assembly includes a straight slide plate 35, a connecting block 36, a wave plate 37, a second spring 316, a rolling bearing 317 and a transverse support rod 318. The wave plate 37 is fixedly installed on the top of the linear module 32. The connecting block 36 is fixedly installed on the inner wall of the end of the side plate 34 close to the heating type forming assembly 2. The connecting block 36 is slidably connected with the straight slide plate 35 through a straight sliding hole. The outer side wall of the top of the straight slide plate 35 is fixedly connected with a transverse support rod 318. The outer end of the transverse support rod 318 is fixedly connected with a rolling bearing 317 used in conjunction with the wave plate 37. The second spring 316 is symmetrically connected to the bottom of the connecting block 36. The second spring 316 and the bottom of the straight slide plate 35 are both connected to the top of the weighing assembly.

[0059] The weighing assembly includes a weighing instrument 315, the top of the weighing instrument 315 is fixedly connected to the second spring 316 and the bottom of the straight slide plate 35, and the weighing instrument 315 is connected to the balancing assembly;

[0060] The balancing assembly includes a box body 33, a connecting shaft 310, a cylinder 311, a guide rail assembly 312, a tooth plate 313, a gear ring 314 and a rotating plate 319. The sensing ends of the two sets of weighing instruments 315 are fixedly connected to the two side walls of the box body 33 respectively. The side of the box body 33 away from the heating type forming assembly 2 is installed with a cylinder 311. The driving end of the cylinder 311 is connected to the tooth plate 313. The tooth plate 313 is fixedly connected to the slider of the guide rail assembly 312. The guide rail of the guide rail assembly 312 is fixedly connected to the side wall of the box body 33. The toothed plate 313 is meshed with a gear ring 314 at equal intervals, a connecting shaft 310 is installed in the mounting hole of the gear ring 314, and a rotating plate 319 is fixedly connected to the portion of the connecting shaft 310 located in the box body 33. When all the rotating plates 319 are in a horizontal state, the ends of all the rotating plates 319 contact each other and all the rotating plates 319 form a complete set of flat plates to block the lower end of the box body 33, and a pusher assembly is connected at equal intervals to the end of the box body 33 close to the heating type forming assembly 2;

[0061] The top of the linkage ejection assembly is always set lower than the bottom of the box body 33;

[0062] The box body 33 is rotatably connected to the connecting shaft 310 via a bearing;

[0063] The pusher assembly includes an inverted L-shaped push plate 38 and an inclined guide plate 39. The end surface of the box body 33 close to the heating type forming assembly 2 is fixedly connected with the inverted L-shaped push plate 38. The end of the inverted L-shaped push plate 38 close to the heating type forming assembly 2 is connected with the inclined guide plate 39, and the inclined guide plate 39 is staggered with the top of the linkage type ejector assembly.

[0064] The linear module 32 of the translational assembly of the flat-laying feeding assembly 3 drives the side plate 34 to move away from the heating forming assembly 2, and the side plate 34 drives the box 33 to move to the bottom of the feeding channel 1. The extrusion assembly of the heating forming assembly 2 moves to contact with the lower die seat 26. At this time, the first heat-conducting assembly and the second heat-conducting assembly are connected, and the heating medium enters the second heat-conducting assembly through the first heat-conducting assembly and then flows back from the first heat-conducting assembly to heat the lower die seat 26 and the extrusion assembly. The heated lower die seat 26 and the extrusion assembly cooperate with the ejection end of the linkage ejection assembly to perform high-temperature rapid molding. After molding, the extrusion assembly moves upward to drive the linkage ejection assembly to move upward, and the linkage ejection assembly ejects the finished product in the lower die seat 26. At the same time, the flat-laying feeding assembly 3 is filled with a fixed The cylinder 311 of the balancing assembly drives the tooth plate 313 to move along the guide rail assembly 312, the guide rail assembly 312 drives the gear ring 314 to rotate, the gear ring 314 drives the connecting shaft 310 to rotate, and the connecting shaft 310 drives the rotating plate 319 to rotate to a horizontal state. When all the rotating plates 319 are in a horizontal state, the ends of all the rotating plates 319 contact each other and all the rotating plates 319 form a complete set of flat plates to block the lower end of the box body 33. The feeding channel 1 adds the material into the box body 33, and the weighing instrument 315 of the weighing assembly weighs the weight of the material in the box body 33, so as to accurately control the feeding amount. The linkage ejection assembly ejects the finished product in the lower die seat 26, and then the linear module 32 of the translation assembly drives the side plate 34 to the heating The forming assembly 2 moves, the side plate 34 drives the connecting block 36 to move, the connecting block 36 drives the straight slide 35 to move, the straight slide 35 drives the horizontal support rod 318 to move, the horizontal support rod 318 drives the rolling bearing 317 to move along the wave plate 37, when the rolling bearing 317 contacts the protruding part of the wave plate 37, the straight slide 35 moves upward and the second spring 316 is compressed, the straight slide 35 and the second spring 316 drive the box body 33 to move upward, when the rolling bearing 317 contacts the concave part of the wave plate 37, the restoring force of the second spring 316 pushes the box body 33 to move upward, realizes the shaking process of the box body 33, the shaking process of the box body 33 realizes that the material in the box body 33 is evenly spread in the box body 33, and when the box body 33 translates, the box body 33 drives the pushing assembly The inverted L-shaped push plate 38 and the inclined guide plate 39 of the parts move, the inverted L-shaped push plate 38 pushes the finished product on the top of the linkage ejection component, and then guides it to the external output structure through the inclined guide plate 39, the pushing assembly pushes the finished product ejected by the heating forming component 2 from the heating forming component 2, the extrusion component of the heating forming component 2 moves downward for a distance, the linkage ejection component moves to the lower end by its own gravity, the box body 33 continues to move toward the heating forming component 2 to just above the lower die seat 26, the cylinder 311 of the balancing assembly drives the tooth plate 313 to move along the guide rail assembly 312, the guide rail assembly 312 drives the gear ring 314 to rotate, the gear ring 314 drives the connecting shaft 310 to rotate, and the connecting shaft 310 drives the rotating plate 319 to rotate to a vertical state,The material in the box 33 falls into the lower die seat 26 through the gap between the vertical rotating plates 319. After being spread, the material falls into the lower die seat 26 through multiple channels formed by multiple rotating plates 319, so that the material is evenly spread in the lower die seat 26. The flat feeding assembly 3 spreads the material evenly in the lower die seat 26, and the finished product above the lower die seat 26 is automatically discharged, which is beneficial to practical use.

[0065] See also Figure 1-Figure 3 , Figure 7-Figure 14 The extrusion assembly includes a hydraulic press 23, a sliding plate 24 and an upper die seat 29. The hydraulic press 23 is symmetrically installed on the top of the support box 22. The driving end of the hydraulic press 23 is connected to the sliding plate 24, and the sliding plate 24 is slidably connected to the column 21 through a sliding hole. The bottom of the sliding plate 24 is fixedly connected to the upper die seat 29. The sliding plate 24 is connected to the linkage ejection assembly, and the upper die seat 29 is connected to the second heat conduction assembly.

[0066] The linkage ejection assembly includes a push block 210, a groove 213, a steel rope 215, a straight plate 218, a transverse plate 219, a through hole 220 and a straight slide groove 221. The steel rope 215 is symmetrically installed at the bottom of the sliding plate 24. The bottom of the steel rope 215 is fixedly connected to the two ends of the top of the transverse plate 219. The top of the transverse plate 219 is fixedly connected with straight plates 218 at equal intervals. The top of the straight plate 218 is fixedly connected with a push block 210. The support plate 25 and the lower die seat 26 are both provided with straight slide grooves 221. The lower die seat 26 is provided with a groove 213 at the top of the straight slide groove 221. The straight plate 218 is fitted and slidably connected with the straight slide groove 221. The push block 210 is plugged into the groove 213. Through holes 220 are provided at both ends of the support plate 25. The steel rope 215 moves in the through holes 220.

[0067] The top of the push block 210 of the linkage ejection assembly is always set lower than the bottom of the box body 33;

[0068] The inclined guide plate 39 is offset from the top of the push block 210 of the linkage ejection assembly.

[0069] The first heat conduction component includes a liquid outlet pipe 27, a liquid outlet pipe mounting seat 28, a conical bucket 211, a first L-shaped pipeline 212, a feed pipe 214, a second oil guide channel 223, a first cross block 224 and a push rod 225. The second oil guide channel 223 is opened in the lower die seat 26. The lower die seat 26 is fixedly connected to the feed pipe 214 and the first L-shaped pipeline 212 at both ends of the second oil guide channel 223. The lower die seat 26 is fixedly connected to the liquid outlet pipe near the side wall of the feed pipe 214. The mounting seat 28 has a liquid outlet pipe 27 installed in the liquid outlet pipe mounting seat 28. The liquid outlet pipe 27 and the inner wall of the upright part of the first L-shaped pipe 212 are fixedly connected with a first horizontal block 224. The middle end of the top of the first horizontal block 224 is fixedly connected with a push rod 225. The liquid outlet pipe 27, the push rod 225 and the upright part of the first L-shaped pipe 212 are connected to the second heat conduction component. The liquid outlet pipe 27 and the outer wall of the upright part of the first L-shaped pipe 212 are fixedly connected with a conical bucket 211 for collecting liquid.

[0070] The feed pipe 214 and the liquid outlet pipe 27 are fixedly connected to the input end and the output end of the external heating device respectively;

[0071] The second heat conducting component includes a second L-shaped pipe 216, a third L-shaped pipe 217, a first oil conducting channel 222, a first spring 226, a second cross block 227, an annular plate 228, a conical groove 229, a conical blocking block 230 and a slide plate 231. The upper die seat 29 is provided with a first oil conducting channel 222. The upper die seat 29 is respectively fixedly connected with the second L-shaped pipe 216 and the third L-shaped pipe 217 at both ends of the first oil conducting channel 222. The upright part of the second L-shaped pipe 216 is arranged opposite to the upright part of the liquid outlet pipe 27. The third L-shaped pipe 217 is arranged opposite to the upright part of the liquid outlet pipe 27. The upright part of the second L-shaped pipe 216 and the third L-shaped pipe 217 are arranged opposite to the upright part of the first L-shaped pipe 212, and the upright parts of the second L-shaped pipe 216 and the third L-shaped pipe 217 are fixedly connected with an annular plate 228 and a second cross block 227 in sequence from bottom to top. The upper and lower end surfaces of the annular plate 228 are provided with conical grooves 229. The top of the second cross block 227 is fixedly connected with a first spring 226, and the top of the first spring 226 is fixedly connected with a slide plate 231. The bottom of the slide plate 231 passes through the second cross block 227 and is fixedly connected with a conical blocking block 230 used in conjunction with the conical groove 229 at the upper end;

[0072] The first spring 226 is always in a compressed state.

[0073] The linear module 32 of the translation assembly of the flat feeding assembly 3 drives the side plate 34 to move away from the heating forming assembly 2, and the side plate 34 drives the box 33 to move below the feeding channel 1. The hydraulic press 23 of the extrusion assembly drives the sliding plate 24 to move downward, and the sliding plate 24 drives the upper die seat 29 to move downward until it contacts the lower die seat 26. The sliding plate 24 drives the second L-shaped pipe 216 and the third L-shaped pipe 217 of the second heat-conducting assembly to move downward, and the second L-shaped pipe 216 and the third L-shaped pipe 217 move downward until they are in close contact with the liquid outlet pipe 27 and the first L-shaped pipe 212. The push rod 225 pushes the conical blocking block 230 to move upward, and the gap between the conical blocking block 230 and the annular plate 228 is a circulation channel. At this time, the first heat-conducting assembly The second heat-conducting component is automatically connected, and the heating medium enters the second oil-conducting channel 223 through the feed pipe 214 of the first heat-conducting component, and then enters the first L-shaped pipe 212, enters the third L-shaped pipe 217 of the second heat-conducting component through the gap between the conical blocking block 230 and the annular plate 228, and then enters the first oil-conducting channel 222, and then enters the second L-shaped pipe 216, and then enters the liquid outlet pipe 27 of the first heat-conducting component through the gap between the conical blocking block 230 and the annular plate 228 and flows back to the external heating equipment. The flowing heating medium heats the lower die seat 26 and the upper die seat 29. The heated lower die seat 26 and the upper die seat 29 cooperate with the push block 210 for high-temperature rapid molding. The hydraulic press of the extrusion component after molding 23 drives the sliding plate 24 to move upward, the sliding plate 24 drives the upper die seat 29 to move upward, drives the steel rope 215 of the linkage type ejection assembly to move upward, the steel rope 215 drives the cross plate 219 to move upward, the cross plate 219 drives the straight plate 218 to move upward along the straight slide groove 221, the straight slide groove 221 drives the push block 210 to move upward, the push block 210 of the linkage type ejection assembly ejects the finished product in the lower die seat 26, when the upper die seat 29 moves upward, the second L-shaped pipe 216 and the third L-shaped pipe 217 move upward, after the conical blocking block 230 is separated from the push rod 225, the first spring 226 drives the slide plate 231 to move downward, the slide plate 231 drives the conical blocking block 230 to block the conical groove 229 at the upper end, and the second heat conducting component and the first heat conducting component are connected. The heat assembly is automatically separated, and the second L-shaped pipe 216 and the third L-shaped pipe 217 are blocked. The first oil guide channel 222 of the upper mold base 29 contains heating medium. At the same time, the feeding channel 1 adds the material into the box body 33, and the weighing instrument 315 of the weighing assembly weighs the weight of the material in the box body 33. Then the linear module 32 of the translation assembly drives the side plate 34 to move toward the heating forming assembly 2, and the side plate 34 drives the connecting block 36 to move, and the connecting block 36 drives the straight slide 35 to move, and the straight slide 35 drives the cross support rod 318 to move, and the cross support rod 318 drives the rolling bearing 317 to move along the wave plate 37. When the rolling bearing 317 contacts the protruding part of the wave plate 37, the straight slide 35 moves upward and the second spring 316 is compressed.The straight slide plate 35 and the second spring 316 drive the box body 33 to move upward. When the rolling bearing 317 contacts the concave part of the wave plate 37, the restoring force of the second spring 316 pushes the box body 33 to move upward, realizing the shaking treatment of the box body 33. The shaking treatment of the box body 33 realizes that the material in the box body 33 is evenly spread in the box body 33. When the box body 33 moves horizontally, the box body 33 drives the inverted L-shaped push plate 38 and the inclined guide plate 39 of the pusher assembly to move. The inverted L-shaped push plate 38 pushes the finished product on the top of the linkage ejection assembly, and then guides it to the external output structure through the inclined guide plate 39; the hydraulic press 23 of the extrusion assembly of the heating forming assembly 2 drives the sliding plate 24 to move downward for a distance, and the cross plate 219 of the linkage ejection assembly moves downward, and the cross plate 219 drives the straight plate 218 to move downward along the straight slide groove 221. The straight plate 218 The push block 210 is driven to be inserted into the groove 213, and the groove 213 moves to the lowest end by its own gravity; the box body 33 continues to move toward the heating type forming component 2 to the top of the lower die seat 26, and the cylinder 311 of the balancing component drives the tooth plate 313 to move along the guide rail component 312, and the guide rail component 312 drives the gear ring 314 to rotate, and the gear ring 314 drives the connecting shaft 310 to rotate, and the connecting shaft 310 drives the rotating plate 319 to rotate to a vertical state, and the material in the box body 33 falls into the lower die seat 26 through the gap between the rotating plates 319 in the vertical state. After being flattened, the material falls into the lower die seat 26 through multiple channels formed by multiple rotating plates 319, which is beneficial to actual use, and is beneficial to the upper die seat 29 being in a heat preservation state, and is beneficial to the upper die seat 29 to quickly heat up in the later stage, thereby improving the forming efficiency and facilitating the automatic ejection of the finished product.

[0074] Example 2: Figure 1-Figure 14 As shown, as a preferred embodiment of the present invention, in order to better achieve the purpose of the present invention, the present invention also provides a method for using a wind turbine blade integrated solid waste recycling device, comprising the following steps:

[0075] Step 1: The linear module 32 of the translation assembly of the flat feeding assembly 3 drives the side plate 34 to move away from the heating forming assembly 2, and the side plate 34 drives the box 33 to move below the feeding channel 1. The hydraulic press 23 of the extrusion assembly drives the sliding plate 24 to move downward, and the sliding plate 24 drives the upper die seat 29 to move downward until it contacts the lower die seat 26. The sliding plate 24 drives the second L-shaped pipe 216 and the third L-shaped pipe 217 of the second heat conducting assembly to move downward, and the second L-shaped pipe 216 and the third L-shaped pipe 217 move downward until they are in close contact with the liquid outlet pipe 27 and the first L-shaped pipe 212. The push rod 225 pushes the conical blocking block 230 to move upward, and the gap between the conical blocking block 230 and the annular plate 228 is a flow channel. At this time, the first heat conducting assembly The heat conducting component and the second heat conducting component are automatically connected, and the heating medium enters the second oil conducting channel 223 through the feed pipe 214 of the first heat conducting component, and then enters the first L-shaped pipe 212, enters the third L-shaped pipe 217 of the second heat conducting component through the gap between the conical blocking block 230 and the annular plate 228, and then enters the first oil conducting channel 222, and then enters the second L-shaped pipe 216, and then enters the liquid outlet pipe 27 of the first heat conducting component through the gap between the conical blocking block 230 and the annular plate 228 and flows back to the external heating equipment. The flowing heating medium heats the lower mold base 26 and the upper mold base 29. The heated lower mold base 26 and the upper mold base 29 cooperate with the push block 210 for high-temperature rapid molding. The liquid of the extruded component after molding The press 23 drives the sliding plate 24 to move upward, and the sliding plate 24 drives the upper die seat 29 to move upward, driving the steel rope 215 of the linkage ejection assembly to move upward, and the steel rope 215 drives the cross plate 219 to move upward, and the cross plate 219 drives the straight plate 218 to move upward along the straight slide groove 221, and the straight slide groove 221 drives the push block 210 to move upward, and the push block 210 of the linkage ejection assembly ejects the finished product in the lower die seat 26. When the upper die seat 29 moves upward, the second L-shaped pipe 216 and the third L-shaped pipe 217 move upward, and after the conical blocking block 230 is separated from the push rod 225, the first spring 226 drives the slide plate 231 to move downward, and the slide plate 231 drives the conical blocking block 230 to block the conical groove 229 at the upper end, and the second heat conducting component and the first The heat conduction component is automatically separated, and the second L-shaped pipe 216 and the third L-shaped pipe 217 are blocked. The first oil guide channel 222 of the upper mold base 29 contains heating medium. At the same time, the feeding channel 1 adds the material into the box body 33, and the weighing instrument 315 of the weighing component weighs the weight of the material in the box body 33. Then the linear module 32 of the translation component drives the side plate 34 to move toward the heating forming component 2, and the side plate 34 drives the connecting block 36 to move, and the connecting block 36 drives the straight slide plate 35 to move, and the straight slide plate 35 drives the horizontal support rod 318 to move, and the horizontal support rod 318 drives the rolling bearing 317 to move along the wave plate 37. When the rolling bearing 317 contacts the protruding part of the wave plate 37, the straight slide plate 35 moves upward and the second spring 316 is compressed.The straight slide plate 35 and the second spring 316 drive the box body 33 to move upward. When the rolling bearing 317 contacts the concave part of the wave plate 37, the restoring force of the second spring 316 drives the box body 33 to move upward, realizing the shaking process of the box body 33. The shaking process of the box body 33 realizes that the materials in the box body 33 are evenly spread in the box body 33. When the box body 33 moves horizontally, the box body 33 drives the inverted L-shaped push plate 38 and the inclined guide plate 39 of the pusher assembly to move. The inverted L-shaped push plate 38 pushes the finished product on the top of the linkage ejection assembly, and then guides it to the external output structure through the inclined guide plate 39;

[0076] Step 2: The hydraulic press 23 of the extrusion assembly of the heating type forming assembly 2 drives the sliding plate 24 to move downward for a distance, the horizontal plate 219 of the linkage type ejection assembly moves downward, the horizontal plate 219 drives the straight plate 218 to move downward along the straight slide groove 221, the straight plate 218 drives the push block 210 to be inserted into the groove 213, and the groove 213 moves to the lowest end by its own gravity;

[0077] Step 3: The box body 33 continues to move toward the heated forming assembly 2 to just above the lower die base 26, the cylinder 311 of the balancing assembly drives the tooth plate 313 to move along the guide rail assembly 312, the guide rail assembly 312 drives the gear ring 314 to rotate, the gear ring 314 drives the connecting shaft 310 to rotate, the connecting shaft 310 drives the rotating plate 319 to rotate to a vertical state, the material in the box body 33 falls into the lower die base 26 through the gap between the rotating plates 319 in the vertical state, and after being flattened, the material falls into the lower die base 26 through multiple channels formed by multiple rotating plates 319;

[0078] Step 4: Repeat steps 1-3.

[0079] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. Such modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A wind turbine blade integrated solid waste recycling device, comprising a feeding channel (1), characterized in that: A flat-laying feeding assembly (3) is provided below the feeding channel (1) for evenly spreading the material and pushing out the finished product; A heating type forming component (2) for hot pressing forming is provided at the discharge end of the flat-laying type feeding component (3); The heating type molding assembly (2) comprises a column (21), a support box (22), a support plate (25), a lower mold base (26), a linkage type ejection assembly, an extrusion assembly, a first heat conduction assembly and a second heat conduction assembly; The support box (22) is symmetrically fixedly connected with four groups of identical columns (21), the top of the columns (21) is connected with an extrusion assembly, the middle end of the columns (21) is fixedly connected with a support plate (25), the top of the support plate (25) is connected with a lower die base (26) used in conjunction with the extrusion assembly, the extrusion assembly is connected with a linkage ejection assembly for ejecting a finished product, the ejection end of the linkage ejection assembly is movably connected with the lower die base (26), and when the linkage ejection assembly is at the lowest end, the top of the linkage ejection assembly, the lower die base (26) and the extrusion assembly are combined into a complete An extrusion molding component, wherein the lower mold base (26) is connected to a first heat-conducting component, and the first heat-conducting component is connected to an output end and an input end of an external heating device, and the extrusion component is connected to a second heat-conducting component. When the lower mold base (26) and the extrusion component are in contact, the first heat-conducting component and the second heat-conducting component are conductive, and a heating medium enters the second heat-conducting component through the first heat-conducting component and then flows back from the first heat-conducting component to heat the lower mold base (26) and the extrusion component. The heated lower mold base (26) and the extrusion component cooperate with the ejection end of the linkage ejection component to perform high-temperature rapid molding; The flat feeding assembly (3) comprises a translation assembly, a shaking assembly, a weighing assembly, an even distribution assembly and a material pushing assembly. The driving end of the translation assembly is connected to the shaking assembly, the bottom of the shaking assembly is connected to the weighing assembly, the sensing end of the weighing assembly is connected to the even distribution assembly, and the end surface of the even distribution assembly close to the heating type forming assembly (2) is connected to the material withdrawal assembly at equal intervals. The translation assembly comprises a support frame (31), a linear module (32) and a side plate (34); the linear module (32) is symmetrically mounted on the top of the support frame (31); the driving end of the linear module (32) is fixedly connected to the side plate (34); and the ends of the linear module (32) and the side plate (34) close to the heating type forming assembly (2) are connected to the shaking assembly; The shaking assembly comprises a straight slide plate (35), a connecting block (36), a wave plate (37), a second spring (316), a rolling bearing (317) and a transverse support rod (318); the wave plate (37) is fixedly mounted on the top of the linear module (32); the connecting block (36) is fixedly mounted on the inner wall of the end of the side plate (34) close to the heating type forming assembly (2); the connecting block (36) is fitted and slidably connected to the straight slide plate (35) through a straight sliding hole; the outer side wall of the top of the straight slide plate (35) is fixedly connected to the transverse support rod (318); the outer end of the transverse support rod (318) is fixedly connected to the rolling bearing (317) used in conjunction with the wave plate (37); the bottom of the connecting block (36) is symmetrically connected to the second spring (316); the second spring (316) and the bottom of the straight slide plate (35) are both connected to the top of the weighing assembly.

2. The wind turbine blade integrated solid waste recycling equipment according to claim 1 is characterized in that: The weighing assembly comprises a weighing instrument (315), the top of the weighing instrument (315) is fixedly connected to the second spring (316) and the bottom of the straight slide plate (35), and the weighing instrument (315) is connected to the balancing assembly.

3. The wind turbine blade integrated solid waste recycling equipment according to claim 2 is characterized in that: The balancing assembly comprises a box (33), a connecting shaft (310), a cylinder (311), a guide rail assembly (312), a tooth plate (313), a gear ring (314) and a rotating plate (319). The sensing ends of the two sets of weighing instruments (315) are respectively fixedly connected to the two side walls of the box (33). The side of the box (33) away from the heating type forming assembly (2) is equipped with a cylinder (311). The driving end of the cylinder (311) is connected to the tooth plate (313). The tooth plate (313) is fixedly connected to the slider of the guide rail assembly (312). The guide rail of the guide rail assembly (312) is connected to the box (3 3) The side walls are fixedly connected, the toothed plate (313) is meshedly connected with a gear ring (314) at equal intervals, a connecting shaft (310) is installed in the mounting hole of the gear ring (314), and a rotating plate (319) is fixedly connected to the portion of the connecting shaft (310) located in the box body (33), and when all the rotating plates (319) are in a horizontal state, the ends of all the rotating plates (319) are in contact with each other and all the rotating plates (319) form a complete set of flat plates to block the lower end of the box body (33), and a pusher assembly is connected to the end of the box body (33) close to the heating type forming assembly (2) at equal intervals; The top of the linkage ejection assembly is always arranged below the bottom of the box body (33).

4. The wind turbine blade integrated solid waste recycling equipment according to claim 3 is characterized in that: The pusher assembly comprises an inverted L-shaped push plate (38) and an inclined guide plate (39); the end surface of the box body (33) close to the heating type forming assembly (2) is fixedly connected to the inverted L-shaped push plate (38); the end of the inverted L-shaped push plate (38) close to the heating type forming assembly (2) is connected to the inclined guide plate (39); and the inclined guide plate (39) is offset from the top of the linkage type ejector assembly.

5. The wind turbine blade integrated solid waste recycling equipment according to claim 4, characterized in that: The extrusion assembly comprises a hydraulic press (23), a sliding plate (24) and an upper die seat (29); the hydraulic press (23) is symmetrically mounted on the top of the support box (22); the driving end of the hydraulic press (23) is connected to the sliding plate (24), and the sliding plate (24) is slidably connected to the column (21) through a sliding hole; the bottom of the sliding plate (24) is fixedly connected to the upper die seat (29); the sliding plate (24) is connected to the linkage ejection assembly, and the upper die seat (29) is connected to the second heat conduction assembly; The linkage ejection assembly comprises a push block (210), a groove (213), a steel rope (215), a straight plate (218), a transverse plate (219), a through hole (220) and a straight slide groove (221). The steel rope (215) is symmetrically installed at the bottom of the sliding plate (24). The bottom of the steel rope (215) is fixedly connected to the two ends of the top of the transverse plate (219). The top of the transverse plate (219) is fixedly connected to the straight plates (218) at equal intervals. The top of the straight plates (218) is fixedly connected to the A push block (210) is fixedly connected, a straight slide groove (221) is provided on the support plate (25) and the lower die seat (26), a groove (213) is provided on the top of the straight slide groove (221) of the lower die seat (26), a straight plate (218) is slidably connected to the straight slide groove (221), the push block (210) and the groove (213) are plugged, through holes (220) are provided at both ends of the support plate (25), and the steel rope (215) moves in the through holes (220).

6. The wind turbine blade integrated solid waste recycling equipment according to claim 5, characterized in that: The first heat conduction component comprises a liquid outlet pipe (27), a liquid outlet pipe mounting seat (28), a conical bucket (211), a first L-shaped pipeline (212), a feed pipe (214), a second oil guide channel (223), a first cross block (224) and a push rod (225); the second oil guide channel (223) is provided in the lower die seat (26); the feed pipe (214) and the first L-shaped pipeline (212) are respectively fixedly connected at both ends of the second oil guide channel (223) of the lower die seat (26); the side wall of the lower die seat (26) close to the feed pipe (214) is fixedly connected to the liquid outlet pipe (212); A liquid pipe mounting seat (28), wherein a liquid outlet pipe (27) is mounted in the liquid outlet pipe mounting seat (28); a first transverse block (224) is fixedly connected to the inner wall of the liquid outlet pipe (27) and the first L-shaped pipe (212) at the upright position; a push rod (225) is fixedly connected to the middle end of the top of the first transverse block (224); the liquid outlet pipe (27), the push rod (225) and the upright position of the first L-shaped pipe (212) are connected to a second heat conduction component; and a conical bucket (211) for collecting liquid is fixedly connected to the outer wall of the liquid outlet pipe (27) and the first L-shaped pipe (212); The second heat-conducting component comprises a second L-shaped pipe (216), a third L-shaped pipe (217), a first oil-conducting passage (222), a first spring (226), a second transverse block (227), an annular plate (228), a conical groove (229), a conical blocking block (230) and a slide plate (231); the upper die seat (29) is provided with a first oil-conducting passage (222); the upper die seat (29) is respectively fixedly connected with the second L-shaped pipe (216) and the third L-shaped pipe (217) at both ends of the first oil-conducting passage (222); the upright portion of the second L-shaped pipe (216) is arranged opposite to the upright portion of the liquid outlet pipe (27); the third L-shaped pipe (217) is arranged opposite to the upright portion of the liquid outlet pipe (27); The upright part of the second L-shaped pipe (217) is arranged opposite to the upright part of the first L-shaped pipe (212), and the upright parts of the second L-shaped pipe (216) and the third L-shaped pipe (217) are fixedly connected with an annular plate (228) and a second transverse block (227) in sequence from bottom to top, and the upper and lower end surfaces of the annular plate (228) are both provided with conical grooves (229), and the top of the second transverse block (227) is fixedly connected with a first spring (226), and the top of the first spring (226) is fixedly connected with a slide plate (231), and the bottom of the slide plate (231) passes through the second transverse block (227) and is fixedly connected with a conical blocking block (230) used in conjunction with the conical groove (229) at the upper end.

7. A method for using the wind turbine blade integrated solid waste recycling device as claimed in claim 6, characterized in that: The following steps are involved: Step 1: The linear module (32) of the translational assembly of the flat feeding assembly (3) drives the side plate (34) to move away from the heating forming assembly (2), and the side plate (34) drives the box (33) to move below the feeding channel (1). The hydraulic press (23) of the extrusion assembly drives the sliding plate (24) to move downward, and the sliding plate (24) drives the upper die seat (29) to move downward until it contacts the lower die seat (26). The sliding plate (24) drives the second L-shaped pipe (216) and the third L-shaped pipe (217) of the second heat conducting assembly to move downward, and the second L-shaped pipe (216) and the third L-shaped pipe (217) move downward until they are in close contact with the liquid outlet pipe (27) and the first L-shaped pipe (212), and the push rod (225) pushes the conical sealing The blocking block (230) moves upward, and the gap between the conical blocking block (230) and the annular plate (228) becomes a circulation channel. At this time, the first heat-conducting component and the second heat-conducting component are automatically connected, and the heating medium enters the second oil-conducting channel (223) through the feed pipe (214) of the first heat-conducting component, and then enters the first L-shaped pipe (212), enters the third L-shaped pipe (217) of the second heat-conducting component through the gap between the conical blocking block (230) and the annular plate (228), and then enters the first oil-conducting channel (222), and then enters the second L-shaped pipe (216), and then enters the liquid outlet pipe (27) of the first heat-conducting component from the gap between the conical blocking block (230) and the annular plate (228) to flow back to the outside. The heating device uses a flowing heating medium to heat the lower die seat (26) and the upper die seat (29). The heated lower die seat (26) and the upper die seat (29) cooperate with the push block (210) to perform high-temperature rapid molding. After molding, the hydraulic press (23) of the extrusion assembly drives the sliding plate (24) to move upward, the sliding plate (24) drives the upper die seat (29) to move upward, drives the steel rope (215) of the linkage ejection assembly to move upward, the steel rope (215) drives the cross plate (219) to move upward, the cross plate (219) drives the straight plate (218) to move upward along the straight slide groove (221), the straight slide groove (221) drives the push block (210) to move upward, and the push block (210) of the linkage ejection assembly ejects the finished product in the lower die seat (26). When the die base (29) moves upward, the second L-shaped pipe (216) and the third L-shaped pipe (217) move upward. After the conical blocking block (230) is separated from the push rod (225), the first spring (226) drives the slide plate (231) to move downward. The slide plate (231) drives the conical blocking block (230) to block the conical groove (229) at the upper end. The second heat conducting component and the first heat conducting component are automatically separated, and the second L-shaped pipe (216) and the third L-shaped pipe (217) are blocked. The first oil conducting channel (222) of the upper die base (29) stores the heating medium. At the same time, the feeding channel (1) adds the material into the box (33). The weighing instrument (315) of the weighing component weighs the weight of the material in the box (33).Then, the linear module (32) of the translation assembly drives the side plate (34) to move toward the heating type forming assembly (2), the side plate (34) drives the connecting block (36) to move, the connecting block (36) drives the straight slide plate (35) to move, the straight slide plate (35) drives the transverse support rod (318) to move, the transverse support rod (318) drives the rolling bearing (317) to move along the wave plate (37), when the rolling bearing (317) contacts the protruding part of the wave plate (37), the straight slide plate (35) moves upward and the second spring (316) is compressed, the straight slide plate (35) and the second spring (316) drive the box The box body (33) moves upward, and when the rolling bearing (317) contacts the concave part of the wave plate (37), the restoring force of the second spring (316) pushes the box body (33) to move upward, thereby realizing the shaking process of the box body (33). The shaking process of the box body (33) realizes that the material in the box body (33) is evenly spread in the box body (33). When the box body (33) moves horizontally, the box body (33) drives the inverted L-shaped push plate (38) and the inclined guide plate (39) of the pusher assembly to move. The inverted L-shaped push plate (38) pushes the finished product at the top of the linkage ejection assembly, and then guides it to the external output structure through the inclined guide plate (39); Step 2: The hydraulic press (23) of the extrusion assembly of the heating type forming assembly (2) drives the sliding plate (24) to move downward for a certain distance, the horizontal plate (219) of the linkage type ejection assembly moves downward, the horizontal plate (219) drives the straight plate (218) to move downward along the straight slide groove (221), the straight plate (218) drives the push block (210) to be inserted into the groove (213), and the groove (213) moves to the lowest end by its own gravity; Step 3: The box (33) continues to move toward the heated forming assembly (2) to the top of the lower die seat (26), the cylinder (311) of the spreading assembly drives the tooth plate (313) to move along the guide rail assembly (312), the guide rail assembly (312) drives the gear ring (314) to rotate, the gear ring (314) drives the connecting shaft (310) to rotate, the connecting shaft (310) drives the rotating plate (319) to rotate to a vertical state, the material in the box (33) falls into the lower die seat (26) through the gap between the rotating plates (319) in the vertical state, and after being spread, the material falls into the lower die seat (26) through multiple channels formed by multiple rotating plates (319); Step 4: Repeat steps 1-3.

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