Insulating sheet die cutting processing equipment

Abstract

The invention discloses insulating sheet die cutting processing equipment which comprises a connecting base, a tractable die cutting structure is connected to the end face of the connecting base, and a liftable stacking structure is connected to the end face of the connecting base and located on one side of the tractable die cutting structure. The part, located on the other side of the tractable die cutting structure, of the end face of the connecting base is connected with a discharging roller and a waste collecting roller through a support. Therefore, the die cutting, conveying and stacking work of the insulating sheets can be synchronously carried out in a moving cam groove and a lifting cam groove through a transmission structure by utilizing driving motors in the tractable die cutting structure and the lifting stacking structure, the automation capability is higher when the device works, and meanwhile, the device is more convenient to use when the device is used. And more labor force is saved.

Description

Technical Field

[0001] The invention relates to the technical field of insulating sheet die-cutting processing, in particular to insulating sheet die-cutting processing equipment. Background Art

[0002] Insulating sheets are widely used in the electrical and electronic industries. The product plays the role of insulation and separation. The product types include frosted insulating sheets, flame retardant insulating sheets, PET insulating sheets and PP insulating sheets, etc. When processing insulating sheets, it is generally necessary to cut large rolls into small sheets, so die-cutting equipment is often used.

[0003] The existing insulation sheet die-cutting processing equipment needs to use a traction machine to pull the insulating sheet during processing, and then use a die-cutting machine to cut the insulating sheet. Therefore, the device has poor synchronization during use, which leads to a high consumption of manpower. After the cutting is completed, the materials must be transferred manually. When stacking the materials, the materials cannot be stacked neatly, which affects the subsequent processing steps. In view of the above problems, it is necessary to provide an insulation sheet die-cutting processing equipment. Summary of the invention

[0004] To achieve the above object, the present invention provides the following technical solutions: An insulating sheet die-cutting processing equipment comprises a connecting base, a towable die-cutting structure is connected to the end surface of the connecting base, a liftable stacking structure is connected to the end surface of the connecting base and located on one side of the towable die-cutting structure, a discharge roller and a waste collection roller are connected to the end surface of the connecting base and located on the other side of the towable die-cutting structure through a bracket, and a controller is connected to the end surface of the connecting base through a connecting seat.

[0005] As a preferred embodiment of the present invention, the traction die-cutting structure includes a connecting bracket connected to the end face of the connecting base. A connecting box body is connected to the end face of the connecting bracket. A driving motor is connected to the side wall of the connecting bracket through a connecting plate. The driving end of the driving motor is connected to a driving rod through a coupling. Symmetrically connected to the side wall of the driving rod are driving gears. Meshingly connected to the side wall of the driving gear are a driven gear and a rotating gear. Connected to the center of the driven gear is a driven rod. Rotating rollers are connected to the side walls of both the driving rod and the driven rod. Connected to the center of the rotating gear is a rotating rod. A moving cam groove is formed in the side wall of the driving gear. A lifting cam groove corresponding to the moving cam groove is formed in the side wall of the rotating gear. A moving dial rod is connected in the moving cam groove. One end of the moving dial rod is connected to a swinging connecting plate. One end of the swinging connecting plate is connected to a fixed rotating shaft. The other end of the swinging connecting plate is connected to a fixed connecting shaft. One end of the fixed connecting shaft is connected to a moving connecting plate. A limiting slider is connected to the side wall of the moving connecting plate. The limiting slider is connected to the side wall of the connecting box body. A lifting dial rod is arranged in the lifting cam groove. One end of the lifting dial rod is connected to a connecting connecting plate. One end of the connecting connecting plate is connected to an engaging rotating shaft. The other end of the connecting connecting plate is connected to an engaging connecting shaft. An engaging connecting plate is connected to the engaging connecting shaft. An engaging slider is connected to the engaging connecting plate. The engaging slider is connected to the side wall of the moving connecting plate. An engaging connecting plate is connected to the end face of the lifting connecting plate. Symmetrically arranged on the end face of the engaging connecting plate are moving box bodies. A fixed sliding sleeve is connected to the side wall of the moving box body. An engaging sliding rod is connected in the fixed sliding sleeve. One end of the engaging sliding rod is connected to the end face of the engaging connecting plate. A fixed housing is connected between the two moving box bodies. A moving slider is connected to the side wall of the moving box body through a connecting plate. A fixed sliding rail is connected to the moving slider. The fixed sliding rail is connected to the end face of the connecting box body. An engaging rack is connected to the end face of the engaging connecting plate and located in the inner cavity of the moving box body. An engaging gear is meshingly connected to the side wall of the engaging rack. An engaging rotating rod is connected to the center of the engaging gear. A moving rack is meshingly connected to the side wall of the engaging gear. Rack sliding rails are connected to the side walls of both the engaging rack and the moving rack. The rack sliding rails are connected to the side walls of the inner cavity of the moving box body. The bottom of the moving rack is connected to a vacuum cavity through a connecting plate. A die-cutting knife is arranged at the bottom of the vacuum cavity. A control valve is connected to the side wall of the vacuum cavity through a conduit. The control valve is connected to the side wall of the fixed housing.

[0006] The cam is connected with the support of the lifting link, and the cam is connected with the support of the lifting link, and the cam is connected with the support of the lifting link, and the cam is connected with the support of the lifting link, and the cam is connected with the support of the lifting link, and the cam is connected with the support of the lifting link, and the cam is connected with the support of the lifting link.

[0007] As a preferred solution of the present invention, the driving motor is connected to the controller via a wire and the connection method is electrical connection, and the driving rod is connected to the side wall of the connecting box through a bearing seat, wherein the connection method between the driving rod and the bearing seat is rotational connection.

[0008] The driven rod is connected to the side wall of the connecting box through the bearing seat, wherein the connection mode of the driven rod and the bearing seat is a rotational connection, the rotating rod is connected to the side wall of the connecting box through the bearing seat, wherein the connection mode of the rotating rod and the bearing seat is a rotational connection, and the matching mode of the moving cam groove and the moving lever is a clearance match.

[0009] As a preferred solution of the present invention, the fixed rotating shaft is connected to the side wall of the connecting box through a bearing, wherein the connection between the fixed rotating shaft and the bearing seat is a rotational connection, and a sliding groove is provided on the swing connecting plate corresponding to the fixed connecting shaft, wherein the connection between the fixed connecting shaft and the sliding groove is a sliding connection.

[0010] The movable connecting plate is an L-shaped structure, and a sliding groove is opened on the side wall of the movable connecting plate and corresponds to the limit slider, wherein the limit slider and the sliding groove are connected in a sliding manner, and the lifting cam groove and the lifting lever are matched in a clearance manner. The connecting shaft is connected to the side wall of the connecting box through a bearing, and the connecting shaft and the bearing seat are connected in a rotating manner.

[0011] As a preferred solution of the present invention, a sliding groove is provided on the lifting connecting plate and corresponds to the connecting shaft, wherein the connecting shaft and the sliding groove are connected in a sliding manner, the lifting connecting plate is a T-shaped structure, and a sliding groove is provided on the lifting connecting plate and corresponds to the connecting slider, wherein the lifting connecting plate and the sliding groove are connected in a sliding manner.

[0012] As a preferred solution of the present invention, a chute is provided on the fixed sliding sleeve corresponding to the connecting sliding rod, wherein the connecting sliding rod is slidably connected to the chute, and a chute is provided on the moving slider corresponding to the fixed sliding rail, wherein the fixed sliding rail is slidably connected to the chute.

[0013] As a preferred solution of the present invention, the connecting rotating rod is connected to the side wall of the moving box body through a bearing seat, wherein the connecting rotating rod is rotatably connected to the bearing seat, and a chute is provided on the rack sliding rail corresponding to both the connecting rack and the moving rack, wherein both the connecting rack and the moving rack are slidably connected to the chute.

[0014] As a preferred solution of the present invention, the control valve is connected to a vacuum device through a conduit, wherein the control valve is connected to a controller through a wire and the connection method is electrically connected. A chute is provided on the connecting sliding rail corresponding to the connecting slider, wherein the connecting slider is slidably connected to the chute. The connecting slider is rotatably connected to the connecting pull rod through a rotating shaft, and the connecting pull rod is rotatably connected to the connecting rod through a rotating shaft.

[0015] As a preferred solution of the present invention, the connecting rotating shaft is connected to the side wall of the fixed bracket through a bearing, wherein the connecting rotating shaft is rotatably connected to the bearing seat. The rotating rotating rod is connected to the side wall of the fixed bracket through a bearing seat, wherein the rotating rotating rod is rotatably connected to the bearing seat. The driven rotating rod is connected to the side wall of the stacking box body through a bearing seat, wherein the driven rotating rod is rotatably connected to the bearing seat.

[0016] In the traction die-cutting structure of the present invention, the driving motor can synchronously perform the work of die-cutting and traction of the insulating sheet material through the transmission structure, making the device more convenient to use.

[0017] In the liftable stacking structure of the present invention, the driving motor can automatically perform the stacking work through the transmission structure and intermittently drive the material tray to move downward, so that when the material is placed, there is no large distance between the material and the material tray, making the material stacked more neatly.

[0018] In the traction die-cutting structure and the liftable stacking structure of the present invention, the driving motor moves in the moving cam groove and the lifting cam groove, and through the transmission structure, it can synchronously perform the work of die-cutting, conveying and stacking of the insulating sheet material, making the device more automated during operation and also saving more labor when the device is used. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a front isometric structural schematic diagram of the present invention; Figure 2 is Figure 1 a partial structural schematic diagram of; Figure 3 is a structural schematic diagram of the traction die-cutting structure of the present invention; Figure 4 is Figure 3 a partial structural schematic diagram of; Figure 5 is a structural schematic diagram of the transmission of the moving cam groove and the lifting cam groove of the present invention; Figure 6 is a structural schematic diagram of the description of the positions of the moving cam groove and the lifting cam groove of the present invention; Figure 7 is a structural schematic diagram of the liftable stacking structure of the present invention; Figure 8 is Figure 7 a partial structural schematic diagram of.

[0020] In the figure: 1. connecting base; 2. traction die-cutting structure; 3. liftable stacking structure; 4. feeding roller; 5. waste collection roller; 6. controller; 200. connecting bracket; 201. connecting box body; 202. driving motor; 203. driving rod; 204. driving gear; 205. driven gear; 206. rotating gear; 207. driven rod; 208. rotating roller; 209. rotating rod; 210. moving cam groove; 211. lifting cam groove; 212. moving shift lever; 213. swinging connecting plate; 214. fixed rotating shaft; 215. fixed connecting shaft; 216. moving connecting plate; 217. limiting slider; 218. lifting shift lever; 219. connecting connecting plate; 220. connecting rotating shaft; 221. connecting connecting shaft; 222. lifting connecting plate; 223. connecting slider; 224. connecting connecting plate; 225. moving box body; 226. fixed sliding sleeve; 227. connecting sliding rod; 228. fixed housing; 229. moving slider; 230. fixed sliding rail; 231. connecting rack; 232. connecting gear; 233. connecting rotating rod; 234. moving rack; 235. rack sliding rail; 236. vacuum cavity; 237. die-cutting knife; 238. control valve; 301. stacking box body; 302. fixed support; 303. connecting sliding rail; 304. connecting slider; 305. connecting connecting rod; 306. connecting pull rod; 307. connecting pull rod; 308. connecting rotating shaft; 309. pulling pawl; 310. rotating ratchet; 311. limiting pawl; 312. rotating rotating rod; 313. driving belt gear; 314. belt rack; 315. driven belt gear; 316. driven rotating rod; 317. material tray. Detailed implementation manners

[0021] Next, in combination with the embodiments of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0022] For the embodiments, please refer to Figures 1-8 , the present invention provides a technical solution: An insulating sheet die-cutting processing device includes a connecting base 1. A traction die-cutting structure 2 is connected to the end face of the connecting base 1. A liftable stacking structure 3 is connected to the end face of the connecting base 1 and on one side of the traction die-cutting structure 2. A material feeding roller 4 and a waste collecting roller 5 are connected to the end face of the connecting base 1 and on the other side of the traction die-cutting structure 2 through a bracket. A controller 6 is connected to the end face of the connecting base 1 through a connecting seat.

[0023] In this embodiment, refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 and Figure 6The tractive die-cutting structure 2 includes a connecting bracket 200, the connecting bracket 200 is connected to the end surface of the connecting base 1, the end surface of the connecting bracket 200 is connected to a connecting box 201, the side wall of the connecting bracket 200 is connected to a driving motor 202 through a connecting plate, the driving end of the driving motor 202 is connected to a driving rod 203 through a coupling, the side wall of the driving rod 203 is symmetrically connected to a driving gear 204, the side wall of the driving gear 204 is meshed with a driven gear 205 and a rotating gear 206, the center of the driven gear 205 is connected to a driven rod 207, the side walls of the driving rod 203 and the driven rod 207 are both connected to rotating rollers 208, the center of the rotating gear 206 is connected to a rotating rod 209, the side wall of the driving gear 204 is A moving cam groove 210 is provided, and a lifting cam groove 211 is provided on the side wall of the rotating gear 206 and corresponds to the moving cam groove 210. A moving lever 212 is connected in the moving cam groove 210, one end of the moving lever 212 is connected to a swing connecting plate 213, one end of the swing connecting plate 213 is connected to a fixed rotating shaft 214, the other end of the swing connecting plate 213 is connected to a fixed connecting shaft 215, one end of the fixed connecting shaft 215 is connected to a moving connecting plate 216, a side wall of the moving connecting plate 216 is connected to a limiting slider 217, the limiting slider 217 is connected to the side wall of the connecting box 201, a lifting lever 218 is provided in the lifting cam groove 211, one end of the lifting lever 218 is connected to a connecting plate 219, one end of the connecting plate 219 is connected There is a connecting shaft 220, the other end of the connecting plate 219 is connected to a connecting shaft 221, the connecting shaft 221 is connected to a lifting connecting plate 222, the lifting connecting plate 222 is connected to a connecting slider 223, the connecting slider 223 is connected to the side wall of the moving connecting plate 216, the end surface of the lifting connecting plate 222 is connected to a connecting connecting plate 224, and a moving box 225 is symmetrically arranged on the end surface of the connecting connecting plate 224, the side wall of the moving box 225 is connected to a fixed sliding sleeve 226, the fixed sliding sleeve 226 is connected to a connecting slide rod 227, one end of the connecting slide rod 227 is connected to the end surface of the connecting connecting plate 224, a fixed shell 228 is connected between the two groups of moving boxes 225, and the side wall of the moving box 225 is connected to a moving slider 224 through a connecting plate. 9. The movable slider 229 is connected with a fixed slide rail 230, which is connected to the end surface of the connecting box 201. A connecting rack 231 is connected to the end surface of the connecting plate 224 and is located in the inner cavity of the movable box 225. A connecting gear 232 is meshedly connected to the side wall of the connecting rack 231. A connecting rotating rod 233 is connected to the center of the connecting gear 232. A movable rack 234 is meshedly connected to the side wall of the connecting gear 232. Rack slide rails 235 are connected to the side walls of the connecting rack 231 and the movable rack 234. The rack slide rails 235 are connected to the side walls of the inner cavity of the movable box 225. The bottom of the movable rack 234 is connected to a vacuum cavity 236 through a connecting plate. A die cutter 237 is provided at the bottom of the vacuum cavity 236.A control valve 238 is connected to the side wall of the vacuum chamber 236 through a conduit, and the control valve 238 is connected to the side wall of the fixed housing 228.

[0024] Based on the above structure and the connection relationship of the above structure, the driving motor 202 is controlled to operate by the controller 6. When the driving end of the driving motor 202 rotates, it sequentially drives the driving rod 203, the driving gear 204, the driven gear 205, the rotating gear 206, the driven rod 207, the rotating roller 208 and the rotating rod 209 to rotate. When the driving gear 204 and the driven gear 205 drive the rotating roller 208 to rotate, the insulating sheet between the two rotating rollers 208 is pulled forward. When the driving gear 204 and the rotating gear 206 rotate, the driving gear 204 drives the moving lever 212 in the moving cam groove 210 to move backward. When the moving lever 212 moves backward, it drives the swing connecting plate 213 to rotate around the fixed rotating shaft 214. When the swing connecting plate 213 rotates, it drives the moving connecting plate 216 to move backward through the fixed connecting shaft 215. When the moving connecting plate 216 moves backward, it drives the lifting connecting plate 222, the connecting connecting plate 224, the moving box body 225, the fixed housing 228, the moving slider 229, the vacuum chamber 236 and the die cutting knife 237 to move backward to be located on the end face of the connecting box body 201. When the rotating gear 206 drives the lifting lever 218 in the lifting cam groove 211 to move upward, when the lifting lever 218 moves upward, it drives the connecting connecting plate 219 to rotate around the connecting rotating shaft 220. When the connecting connecting plate 219 rotates, it drives the lifting connecting plate 222 to move upward through the connecting connecting shaft 221. When the lifting connecting plate 222 moves upward, it drives the connecting rack 231 to move upward through the connecting connecting plate 224. When the connecting rack 231 moves upward, it drives the moving rack 234 to move downward in the rack slide rail 235 through the connecting gear 232. When the moving rack 234 moves, it drives the vacuum chamber 236 and the die cutting knife 237 to move downward, so as to perform the die cutting work on the insulating sheet, and at the same time, the controller 6 starts the control valve 238 to adsorb the cut insulating sheet.

[0025] The driving motor 202 is connected to the controller 6 through a wire and the connection method is electrical connection. The control valve 238 is connected to a vacuum device through a conduit. Among them, the control valve 238 is connected to the controller 6 through a wire and the connection method is electrical connection, and the operation of the driving motor 202 and the control valve 238 can be controlled by the controller 6.

[0026] The driving rod 203 is connected to the side wall of the connecting box body 201 through a bearing block. The connection mode between the driving rod 203 and the bearing block is a rotational connection. The driven rod 207 is connected to the side wall of the connecting box body 201 through a bearing block. The connection mode between the driven rod 207 and the bearing block is a rotational connection. The rotating rod 209 is connected to the side wall of the connecting box body 201 through a bearing block. The connection mode between the rotating rod 209 and the bearing block is a rotational connection. When the driving rod 203 rotates, it can drive the driven rod 207 and the rotating rod 209 to rotate through the driving gear 204, the driven gear 205 and the rotating gear 206.

[0027] A moving cam groove 210 is formed on the side wall of the driving gear 204, and four virtual points, namely a1, a2, a3, and a4, are set on the moving cam groove 210. A lifting cam groove 211 is formed on the side wall of the rotating gear 206, and is correspondingly set as b1, b2, b3, and b4 corresponding to the four virtual points of the moving cam groove 210, as Figure 6 shown.

[0028] The matching mode between the moving cam groove 210 and the moving dial rod 212 is a clearance fit. The fixed rotating shaft 214 is connected to the side wall of the connecting box body 201 through a bearing. The connection mode between the fixed rotating shaft 214 and the bearing block is a rotational connection. A sliding groove is correspondingly formed on the swinging connecting plate 213 and corresponding to the fixed connecting shaft 215. The connection mode between the fixed connecting shaft 215 and the sliding groove is a sliding connection. The moving connecting plate 216 is of an L-shaped structure. A sliding groove is correspondingly formed on the side wall of the moving connecting plate 216 and corresponding to the limiting slider 217. The connection mode between the limiting slider 217 and the sliding groove is a sliding connection. The matching mode between the lifting cam groove 211 and the lifting dial rod 218 is a clearance fit. The connecting rotating shaft 220 is connected to the side wall of the connecting box body 201 through a bearing. The connection mode between the connecting rotating shaft 220 and the bearing block is a rotational connection. A sliding groove is correspondingly formed on the lifting connecting plate 222 and corresponding to the connecting connecting shaft 221. The connection mode between the connecting connecting shaft 221 and the sliding groove is a sliding connection. The lifting connecting plate 222 is of a T-shaped structure. A sliding groove is correspondingly formed on the lifting connecting plate 222 and corresponding to the connecting slider 223. The connection mode between the lifting connecting plate 222 and the sliding groove is a sliding connection. When the driving gear 204 and the rotating gear 206 rotate, they can drive the lifting connecting plate 222 to perform a linkage operation of translation and lifting through the moving cam groove 210 and the lifting cam groove 211.

[0029] A chute is correspondingly provided on the fixed sliding sleeve 226 and is aligned with the connecting sliding rod 227. The connecting sliding rod 227 is slidably connected to the chute. A chute is correspondingly provided on the moving slider 229 and is aligned with the fixed sliding rail 230. The fixed sliding rail 230 is slidably connected to the chute. The connecting rotating rod 233 is connected to the side wall of the moving box body 225 through a bearing block. The connecting rotating rod 233 is rotatably connected to the bearing block. A chute is correspondingly provided on the rack sliding rail 235 and is aligned with both the connecting rack 231 and the moving rack 234. The connecting rack 231 and the moving rack 234 are both slidably connected to the chute. When the lifting connecting plate 222 moves upward, it can drive the die-cutting knife 237 on the vacuum cavity 236 at the bottom of the moving rack 234 to move downward; In this embodiment, refer to Figure 1 , Figure 2 , Figure 7 and Figure 8 , the liftable stacking structure 3 includes a stacking box body 301. The stacking box body 301 is connected to the end face of the connection base 1 through a connection seat. Fixed brackets 302 are symmetrically connected to the side walls of the stacking box body 301. An connecting sliding rail 303 is connected to the end face of the fixed bracket 302. A connection slider 304 is connected in the connecting sliding rail 303. A connecting link 305 is connected to the side wall of the connection slider 304. The other end of the connecting link 305 is connected to the end face of the moving slider 229. An connecting pull rod 306 is connected to the end face of the connection slider 304. The other end of the connecting pull rod 306 is connected to a connection pull rod 307. The other end of the connection pull rod 307 is connected to a connection rotating shaft 308. A pulling pawl 309 is connected to the side wall of the connection pull rod 307 through a connecting rod. A rotating ratchet 310 is provided on the pulling pawl 309. A limiting pawl 311 is correspondingly provided on the fixed bracket 302 and is aligned with the rotating ratchet 310. A rotating rod 312 is connected to the center of the rotating ratchet 310. Driving belt gears 313 are symmetrically connected to the side wall of the rotating rod 312. A driven belt gear 315 is meshed and connected to the side wall of the driving belt gear 313 through a belt rack 314. A driven rod 316 is connected to the center of the driven belt gear 315. A material tray 317 is connected to the side wall of the belt rack 314 through a connection frame.

[0030] Based on the above structure and the connection relationship of the above structure, when the moving slider 229 moves, it drives the connecting slider 304 to move in the connecting slide rail 303 through the connecting link 305. When the connecting slider 304 moves, it drives the pulling pawl 309 to rotate around the connecting rotating shaft 308 through the connecting pull rod 306 and the connecting pull rod 307. When the pulling pawl 309 rotates, it drives the rotating ratchet wheel 310 to rotate. When the rotating ratchet wheel 310 rotates, it drives the rotating rod 312, the driving belt gear 313, the belt rack 314, the driven belt gear 315 and the driven rod 316 to rotate. When the belt rack 314 rotates, it drives the material tray 317 to move downward in the stacking box 301.

[0031] Chutes are provided on the connecting slide rail 303 corresponding to the connecting slider 304. The connection method between the connecting slider 304 and the chutes is sliding connection. The connecting slider 304 and the connecting pull rod 306 are rotationally connected through a rotating shaft. The connecting pull rod 306 and the connecting pull rod 307 are rotationally connected through a rotating shaft. The connecting rotating shaft 308 is connected to the side wall of the fixed bracket 302 through a bearing. The connection method between the connecting rotating shaft 308 and the bearing seat is rotational connection. The rotating rod 312 is connected to the side wall of the fixed bracket 302 through a bearing seat. The connection method between the rotating rod 312 and the bearing seat is rotational connection. The driven rod 316 is connected to the side wall of the stacking box 301 through a bearing seat. The connection method between the driven rod 316 and the bearing seat is rotational connection. When the connecting slider 304 moves, it can drive the driven rod 316 to rotate unidirectionally through the action of the pulling pawl 309 and the rotating ratchet wheel 310.

[0032] The working process of the present invention: When using the insulating sheet die-cutting and processing equipment, first connect the device to the power supply to make the device in a working state. Then, control the driving motor 202 to operate through the controller 6. When the driving end of the driving motor 202 rotates, it drives the driving rod 203, the driving gear 204, the driven gear 205, the rotating gear 206, the driven rod 207, the rotating roller 208 and the rotating rod 209 to rotate in sequence. When the driving gear 204 and the driven gear 205 drive the rotating roller 208 to rotate, the insulating sheet between the two rotating rollers 208 is pulled forward. When the driving gear 204 and the rotating gear 206 rotate, when the moving lever 212 in the moving cam groove 210 passes through a3 - a4 - a1 in the moving cam groove 210, the lifting lever 218 in the lifting cam groove 211 passes through b3 - b4 - b1 of the lifting cam groove 211.

[0033] During the rotation of the moving lever 212 in the moving cam groove 210 through a3 - a4 - a1 in the moving cam groove 210, the driving gear 204 drives the moving lever 212 in the moving cam groove 210 to move backward. When the moving lever 212 moves backward, it drives the swinging link plate 213 to rotate around the fixed rotating shaft 214. When the swinging link plate 213 rotates, it drives the moving link plate 216 to move backward through the fixed connecting shaft 215. When the moving link plate 216 moves backward, it drives the lifting link plate 222, the connecting link plate 224, the moving box body 225, the fixed housing 228, the moving slider 229, the vacuum cavity 236 and the die-cutting knife 237 to move backward and be located on the end face of the connecting box body 201. When the moving slider 229 moves, it drives the connecting slider 304 to move in the connecting slide rail 303 through the connecting link 305. When the connecting slider 304 moves, it drives the pulling pawl 309 to rotate around the connecting rotating shaft 308 through the connecting pull rod 306 and the connecting pull rod 307. When the pulling pawl 309 rotates, it drives the rotating ratchet wheel 310 to rotate. When the rotating ratchet wheel 310 rotates, it drives the rotating rod 312, the driving belt gear 313, the belt rack 314, the driven belt gear 315 and the driven rod 316 to rotate. When the belt rack 314 rotates, it drives the material tray 317 to move downward in the stacking box body 301.

[0034] During the rotation of the lifting lever 218 in the lifting cam groove 211 through b3 - b4 - b1 of the lifting cam groove 211, the rotating gear 206 drives the lifting lever 218 in the lifting cam groove 211 to move upward. When the lifting lever 218 moves upward, it drives the connecting link plate 219 to rotate around the connecting rotating shaft 220. When the connecting link plate 219 rotates, it drives the lifting link plate 222 to move upward through the connecting connecting shaft 221. When the lifting link plate 222 moves upward, it drives the connecting rack 231 to move upward through the connecting link plate 224. When the connecting rack 231 moves upward, it drives the moving rack 234 to move downward in the rack slide rail 235 through the connecting gear 232. When the moving rack 234 moves, it drives the vacuum cavity 236 and the die-cutting knife 237 to move downward, thereby performing the die-cutting work on the insulating sheet material, and at the same time, the control valve 238 is started by the controller 6 to adsorb the cut insulating sheet material; When the driving gear 204 and the rotating gear 206 rotate, when the moving lever 212 in the moving cam groove 210 passes through a1 - a2 - a3 in the moving cam groove 210, and then the lifting lever 218 in the lifting cam groove 211 passes through b1 - b2 - b3 of the lifting cam groove 211.

[0035] During the rotation of the moving lever 212 in the moving cam groove 210 through a1-a2-a3 in the moving cam groove 210, the driving gear 204 drives the moving lever 212 in the moving cam groove 210 to move forward. When the moving lever 212 moves forward, it drives the swinging connecting plate 213 to rotate around the fixed rotating shaft 214. When the swinging connecting plate 213 rotates, it drives the moving connecting plate 216 to move forward through the fixed connecting shaft 215. When the moving connecting plate 216 moves forward, it drives the lifting connecting plate 222, the connecting connecting plate 224, the moving box body 225, the fixed housing 228, the moving slider 229, the vacuum cavity 236, the die-cutting knife 237, and the insulating sheet material to move forward and be located above the stacking box body 301. Then, the control valve 238 is started through the controller 6 to cut off the insulating sheet material and let it fall onto the end face of the material tray 317. When the moving slider 229 moves, it drives the connecting slider 304 to move in the connecting slide rail 303 through the connecting link 305. When the connecting slider 304 moves, it drives the pulling pawl 309 to rotate around the connecting rotating shaft 308 through the connecting pull rod 306 and the connecting pull rod 307. When the pulling pawl 309 rotates, due to the working principle of the pulling pawl 309 and the rotating ratchet 310 at this time, the pulling pawl 309 does not drive the rotating ratchet 310 to rotate. At the same time, under the action of the limiting pawl 311, the rotating lever 312, the driving belt gear 313, the belt rack 314, the driven belt gear 315, the driven lever 316, and the material tray 317 are in a static state; During the rotation of the lifting lever 218 in the lifting cam groove 211 through b1-b2-b3 in the lifting cam groove 211, the rotating gear 206 drives the lifting lever 218 in the lifting cam groove 211 to move downward. When the lifting lever 218 moves downward, it drives the connecting connecting plate 219 to rotate around the connecting rotating shaft 220. When the connecting connecting plate 219 rotates, it drives the lifting connecting plate 222 to move downward through the connecting connecting shaft 221. When the lifting connecting plate 222 moves downward, it drives the connecting rack 231 to move downward through the connecting connecting plate 224. When the connecting rack 231 moves downward, it drives the moving rack 234 to move upward in the rack slide rail 235 through the connecting gear 232. When the moving rack 234 moves, it further drives the vacuum cavity 236 and the die-cutting knife 237 to move upward, so as to perform the work of transferring the insulating sheet material.

[0036] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principle and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An insulating sheet die-cutting processing device, including a connecting base (1), characterized in that: On the end face of the connection base (1), a traction die-cutting structure (2) is connected. The traction die-cutting structure (2) can perform die-cutting and traction of the insulating sheet synchronously. On the end face of the connection base (1) and on one side of the traction die-cutting structure (2), a liftable stacking structure (3) is connected. The traction die-cutting structure (2) and the liftable stacking structure (3) cooperate with each other to perform die-cutting, conveying, and stacking of the insulating sheet synchronously. On the end face of the connection base (1) and on the other side of the traction die-cutting structure (2), a feeding roller (4) and a waste collection roller (5) are connected through a bracket. On the end face of the connection base (1), a controller (6) is connected through a connection seat.

2. The die-cutting processing equipment for an insulating sheet according to claim 1, characterized in that: The traction die-cutting structure (2) includes a connection bracket (200). The connection bracket (200) is connected to the end face of the connection base (1). A connection box body (201) is connected to the end face of the connection bracket (200). A driving motor (202) is connected to the side wall of the connection bracket (200) through a connection plate. The driving end of the driving motor (202) is connected to a driving rod (203) through a coupling. Driving gears (204) are symmetrically connected to the side wall of the driving rod (203). A driven gear (205) and a rotating gear (206) are meshed and connected to the side wall of the driving gear (204). A driven rod (207) is connected to the center of the driven gear (205). Rotating rollers (208) are connected to the side walls of the driving rod (203) and the driven rod (207). A rotating rod (209) is connected to the center of the rotating gear (206). A moving cam groove (210) is opened on the side wall of the driving gear (204). A lifting cam groove (211) corresponding to the moving cam groove (210) is opened on the side wall of the rotating gear (206). A moving dial rod (212) is connected in the moving cam groove (210). One end of the moving dial rod (212) is connected to a swinging connecting plate (213). One end of the swinging connecting plate (213) is connected to a fixed rotating shaft (214). The other end of the swinging connecting plate (213) is connected to a fixed connecting shaft (215). One end of the fixed connecting shaft (215) is connected to a moving connecting plate (216). A limiting slider (217) is connected to the side wall of the moving connecting plate (216). The limiting slider (217) is connected to the side wall of the connection box body (201). A lifting dial rod (218) is arranged in the lifting cam groove (211); One end of the lifting lever (218) is connected to a connecting link plate (219). One end of the connecting link plate (219) is connected to an articulating rotating shaft (220), and the other end of the connecting link plate (219) is connected to an articulating connecting shaft (221). An elevating link plate (222) is connected to the articulating connecting shaft (221). An articulating slider (223) is connected to the elevating link plate (222). The articulating slider (223) is connected to the side wall of the moving link plate (216). An articulating link plate (224) is connected to the end face of the elevating link plate (222). Moving boxes (225) are symmetrically arranged on the end face of the articulating link plate (224). A fixed sliding sleeve (226) is connected to the side wall of the moving box (225). An articulating sliding rod (227) is connected in the fixed sliding sleeve (226). One end of the articulating sliding rod (227) is connected to the end face of the articulating link plate (224). A fixed housing (228) is connected between the two groups of moving boxes (225). A moving slider (229) is connected to the side wall of the moving box (225) through a connecting plate. A fixed sliding rail (230) is connected to the moving slider (229). The fixed sliding rail (230) is connected to the end face of the connecting box (201). An articulating rack (231) is connected to the end face of the articulating link plate (224) and located in the inner cavity of the moving box (225). An articulating gear (232) is meshed and connected to the side wall of the articulating rack (231). An articulating rotating rod (233) is connected to the center of the articulating gear (232). A moving rack (234) is meshed and connected to the side wall of the articulating gear (232). Rack sliding rails (235) are connected to the side walls of the articulating rack (231) and the moving rack (234). The rack sliding rails (235) are connected to the side walls of the inner cavity of the moving box (225). The bottom of the moving rack (234) is connected to a vacuum chamber (236) through a connecting plate. A die-cutting knife (237) is arranged at the bottom of the vacuum chamber (236). A control valve (238) is connected to the side wall of the vacuum chamber (236) through a conduit. The control valve (238) is connected to the side wall of the fixed housing (228).

3. An insulating sheet die-cutting processing device according to claim 2, characterized in that: The liftable stacking structure (3) includes a stacking box body (301). The stacking box body (301) is connected to the end face of the connecting base (1) through a connecting seat. Fixed brackets (302) are symmetrically connected to the side walls of the stacking box body (301). An access slide rail (303) is connected to the end face of the fixed bracket (302). A connecting slider (304) is connected in the access slide rail (303). A connecting link (305) is connected to the side wall of the connecting slider (304). The other end of the connecting link (305) is connected to the end face of the moving slider (229). An access pull rod (306) is connected to the end face of the connecting slider (304). The other end of the access pull rod (306) is connected to a connecting pull rod (307). The other end of the connecting pull rod (307) is connected to a connecting rotating shaft (308). A pulling pawl (309) is connected to the side wall of the connecting pull rod (307) through a connecting rod. A rotating ratchet wheel (310) is arranged on the pulling pawl (309). A limiting pawl (311) is arranged on the fixed bracket (302) corresponding to the rotating ratchet wheel (310). A rotating rod (312) is connected to the center of the rotating ratchet wheel (310). Driving belt gears (313) are symmetrically connected to the side wall of the rotating rod (312). A driven belt gear (315) is meshed and connected to the side wall of the driving belt gear (313) through a belt rack (314). A driven rod (316) is connected to the center of the driven belt gear (315). A material tray (317) is connected to the side wall of the belt rack (314) through a connecting frame.

4. An insulating sheet die-cutting processing device according to claim 3, characterized in that: The drive motor (202) is connected to the controller (6) through a wire and the connection method is electrical connection. The drive rod (203) is connected to the side wall of the connection box body (201) through a bearing seat. The connection method between the drive rod (203) and the bearing seat is rotational connection. The driven rod (207) is connected to the side wall of the connection box body (201) through a bearing seat. The connection method between the driven rod (207) and the bearing seat is rotational connection. The rotating rod (209) is connected to the side wall of the connection box body (201) through a bearing seat. The connection method between the rotating rod (209) and the bearing seat is rotational connection. The cooperation method between the moving cam groove (210) and the moving dial rod (212) is clearance fit.

5. An insulating sheet die-cutting processing device according to claim 3, characterized in that: The fixed rotating shaft (214) is connected to the side wall of the connection box body (201) through a bearing. The connection method between the fixed rotating shaft (214) and the bearing seat is rotational connection. A chute is correspondingly formed on the swinging connecting plate (213) corresponding to the fixed connecting shaft (215). The connection method between the fixed connecting shaft (215) and the chute is sliding connection. The moving connecting plate (216) is of an L-shaped structure. A sliding groove is formed in the side wall of the moving connecting plate (216) corresponding to the limit sliding block (217). The connection mode between the limit sliding block (217) and the sliding groove is a sliding connection. The matching mode between the lifting cam groove (211) and the lifting lever (218) is a clearance fit. The connecting rotating shaft (220) is connected to the side wall of the connecting box body (201) through a bearing. The connection mode between the connecting rotating shaft (220) and the bearing seat is a rotating connection.

6. The die-cutting processing equipment for an insulating sheet according to claim 3, characterized in that: A sliding groove is formed in the lifting connecting plate (222) corresponding to the connecting shaft (221). The connection mode between the connecting shaft (221) and the sliding groove is a sliding connection. The lifting connecting plate (222) is of a T-shaped structure. A sliding groove is formed in the lifting connecting plate (222) corresponding to the connecting sliding block (223). The connection mode between the lifting connecting plate (222) and the sliding groove is a sliding connection.

7. An insulating sheet die-cutting processing device according to claim 3, characterized in that: A sliding groove is formed in the fixed sliding sleeve (226) corresponding to the connecting sliding rod (227). The connection mode between the connecting sliding rod (227) and the sliding groove is a sliding connection. A sliding groove is formed in the moving sliding block (229) corresponding to the fixed sliding rail (230). The connection mode between the fixed sliding rail (230) and the sliding groove is a sliding connection.

8. An insulating sheet die-cutting processing device according to claim 3, characterized in that: The connecting rotating rod (233) is connected to the side wall of the moving box body (225) through a bearing seat. The connection mode between the connecting rotating rod (233) and the bearing seat is a rotating connection. A sliding groove is formed in the rack sliding rail (235) corresponding to both the connecting rack (231) and the moving rack (234). The connection modes between the connecting rack (231) and the moving rack (234) and the sliding groove are both sliding connections.

9. An insulating sheet die-cutting processing device according to claim 3, characterized in that: The control valve (238) is connected to a vacuum device through a conduit. The control valve (238) is connected to the controller (6) through a wire and the connection mode is an electrical connection. A sliding groove is formed in the connecting sliding rail (303) corresponding to the connecting sliding block (304). The connection mode between the connecting sliding block (304) and the sliding groove is a sliding connection. The connecting sliding block (304) is rotationally connected to the connecting pull rod (306) through a rotating shaft. The connecting pull rod (306) is rotationally connected to the connecting pull rod (307) through a rotating shaft.

10. The die-cutting processing equipment for an insulating sheet according to claim 3, wherein: The connecting rotating shaft (308) is connected to the side wall of the fixed bracket (302) through a bearing. The connection mode between the connecting rotating shaft (308) and the bearing seat is a rotating connection. The rotating rod (312) is connected to the side wall of the fixed bracket (302) through a bearing seat. The connection mode between the rotating rod (312) and the bearing seat is a rotating connection. The driven rotating rod (316) is connected to the side wall of the stacking box body (301) through a bearing seat. The connection mode between the driven rotating rod (316) and the bearing seat is a rotating connection.

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