New energy circuit board processing equipment and processing method

Abstract

The invention discloses new energy circuit board processing equipment and a processing method, and belongs to the technical field of flexible circuit board preparation, the new energy circuit board processing equipment comprises a rack, a copper foil processing mechanism, an upper PI film laminating mechanism, a lower PI film laminating mechanism and a forming mechanism; the copper foil processing mechanism comprises a copper foil unwinding roller, a laser cutting machine, a copper foil waste discharge assembly and a lower protection assembly I; the copper foil unwinding roller is rotationally mounted at a first station on the rack; the rack is provided with a copper foil waste discharge assembly and a lower protection assembly I; the upper PI film laminating mechanism comprises an upper protection assembly, an upper PI film windowing assembly, a first hot pressing assembly and a position adjusting assembly, the upper protection assembly is installed on the rack, the upper PI film windowing assembly is installed on the rack, and the first hot pressing assembly is installed on the rack; a position adjusting assembly is mounted on the rack; a lower PI film laminating mechanism is mounted on the rack; and a forming mechanism is mounted on the rack. Through the mode, after the copper foil material belt is cut by laser, the upper film and the lower film are sequentially bonded on the copper foil material belt.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of flexible circuit board preparation, in particular to a new energy circuit board processing equipment and a processing method. BACKGROUND

[0002] Flexible printed circuit board is an integrated circuit used in the field of new energy power battery, which usually takes polyimide (PI) or polyester (PET) film as the insulating substrate, and copper foil as the conductor line in the middle, and the substrate and copper foil are mechanically cut by round knife or flat knife die cutting process to form the required line shape.

[0003] For example, the production and processing equipment of FDC flexible die-cutting circuit board is disclosed in Chinese patent No. CN221227862U, which cuts the first waste profiling area and the second waste profiling area of the flexible circuit board through the round knife assembly, and the recovery film assembly is used to paste the recovery film to the side of the flexible circuit board away from the protective film.

[0004] However, after long-term processing of copper foil, the cutting tool is prone to wear, which leads to the curling of the processed copper foil and the occurrence of burrs; and the precision of the round knife die cutting process is usually between ±0.03-0.05mm, which is difficult to accurately process small holes.

[0005] Therefore, the present application designs a new energy circuit board processing equipment and a processing method to solve the above problems. SUMMARY

[0006] In view of the above-mentioned shortcomings of the prior art, the present application provides a new energy circuit board processing equipment and a processing method.

[0007] To achieve the above purpose, the present application is realized by the following technical scheme: A new energy circuit board processing equipment, comprising a rack, a copper foil processing mechanism, an upper PI film lamination mechanism, a lower PI film lamination mechanism and a forming mechanism; The rack is provided with fifteen workstations from the first to the fifteenth in sequence along the moving direction of the copper foil tape; A plurality of tape guide rollers are rotatably installed on the rack; The copper foil processing mechanism comprises a copper foil unwinding roller, a laser cutting machine, a copper foil waste removal assembly and a lower protection assembly one, a copper foil unwinding roller driven by a servo motor is rotatably installed at the first workstation on the rack; a laser cutting machine is fixedly installed on the rack, a copper foil waste removal assembly for removing the waste of the copper foil tape is installed at the fourth workstation on the rack, and a lower protection assembly one is installed on the rack to make the bottom film one and the copper foil tape in a lamination state at the second to sixth workstations; The upper PI film attaching mechanism comprises an upper protection assembly, an upper PI film windowing assembly, a hot pressing assembly one and a position adjusting assembly, the upper protection assembly for making the bottom film two and the upper film in the attaching state at the sixth to twelfth workstations is installed on the rack, the upper PI film windowing assembly for windowing the upper film is installed at the seventh workstation of the rack, the hot pressing assembly one is installed on the rack; the position adjusting assembly is installed on the rack; The lower PI film attaching mechanism is installed on the rack; The forming mechanism is installed on the rack.

[0008] Further, the forming mechanism comprises a combined round cutting assembly, a positioning hole waste removing assembly and a forming separating assembly, the combined round cutting assembly is installed at the thirteenth workstation of the rack, the positioning hole waste removing assembly is installed at the thirteenth workstation of the rack, and the forming separating assembly is installed at the fourteenth workstation of the rack.

[0009] Further, the lower PI film attaching mechanism comprises a lower protection assembly two, a lower PI film windowing assembly and a hot pressing assembly two, the lower protection assembly two for making the bottom film three and the lower film in the attaching state at the tenth to fifteenth workstations is installed at the tenth and fifteenth workstations of the rack; the lower PI film windowing assembly is installed at the eleventh workstation of the rack, and the hot pressing assembly two is installed at the twelfth workstation of the rack.

[0010] Further, the copper foil waste removing assembly comprises a waste removing unwinding roller one, a waste removing winding roller one, a waste removing supporting roller and a waste removing pressing roller, a fixed frame is fixedly installed at the fourth workstation of the rack; the waste removing pressing roller driven by a servo motor is rotatably installed on the fixed frame, the waste removing supporting roller for pressing the waste removing film and the upper side of the copper foil material together in cooperation with the waste removing pressing roller is rotatably installed on the fixed frame; a material guiding roller is rotatably installed on the rack; the waste removing unwinding roller one driven by a servo motor is rotatably installed on the rack, and the waste removing winding roller one driven by a servo motor is rotatably installed on the rack; one end of the waste removing film is fixedly connected with the waste removing unwinding roller one, and the other end of the waste removing film is fixedly connected with the waste removing winding roller one through the material guiding roller and the waste removing pressing roller.

[0011] Further, the lower protection assembly comprises a lower unwinding roller, a lower winding roller, a lower separation frame, a lower separation block, a lower protection compression roller and a lower protection support roller, a fixed frame is fixedly installed at the second station on the rack; the lower protection compression roller driven by a servo motor is rotatably installed on the fixed frame, the lower protection support roller for pressing the bottom film one and the copper foil tape on the lower side together is rotatably installed on the fixed frame; the tape guide roller is rotatably installed on the fixed frame; the lower separation frame is installed on the right side of the fixed frame at the sixth station, and the lower separation block is fixedly installed on the lower separation frame; the lower unwinding roller driven by a servo motor is rotatably installed on the rack, and the lower winding roller driven by a servo motor is rotatably installed on the rack; one end of the bottom film one is fixedly connected with the waste discharge unwinding roller one, and the other end of the bottom film one moves to the right to the sixth station after passing through the tape guide roller and the waste discharge compression roller, and is fixedly connected with the lower winding roller after being guided by the lower separation block and the tape guide roller.

[0012] Further, the upper protection assembly comprises an upper unwinding roller, an upper winding roller, an upper protection compression roller and an upper protection support roller, a fixed frame is fixedly installed at the eighth station on the rack; the upper protection support roller is rotatably installed on the fixed frame, the tape guide roller is rotatably installed on the fixed frame, and the upper protection compression roller driven by a servo motor is rotatably installed on the fixed frame; the upper protection compression roller and the upper protection support roller press the bottom film two on the upper film; the upper unwinding roller and the upper winding roller driven by a servo motor are rotatably installed on the rack; one end of the bottom film two is fixedly connected with the upper unwinding roller, and the other end of the bottom film two moves to the left to the sixth station after being guided by the tape guide roller, and then moves to the right, and is fixedly connected with the upper winding roller after passing through a plurality of tape guide rollers.

[0013] Further, the upper PI film windowing assembly comprises a PI film die unwinding roller, a protective film unwinding roller, a protective film winding roller, a PI film round cutting roller, a PI film round cutting support roller and a waste discharge compression roller, a fixed frame is fixedly installed at the seventh station on the rack; the tape guide roller is rotatably installed on the fixed frame, the PI film round cutting support roller is rotatably installed on the fixed frame, and the waste discharge compression roller driven by a servo motor is rotatably installed on the fixed frame; the PI film die unwinding roller, the protective film unwinding roller and the protective film winding roller driven by a servo motor are rotatably installed on the rack; the end of the upper film is fixedly connected with the PI film die unwinding roller, the upper film passes through between the PI film round cutting roller and the PI film round cutting support roller, and then is attached with the upper protective film on the lower side of the waste discharge compression roller.

[0014] Further, the hot pressing assembly comprises a hot pressing roller, a hot pressing support roller and a turning roller, a fixed frame is fixedly installed at the sixth station of the rack, and a material belt guide roller is rotatably installed on the fixed frame; the hot pressing support roller is rotatably installed on the fixed frame, and the hot pressing roller driven by a servo motor is rotatably installed on the fixed frame; an electric heater for heating the hot pressing roller is fixedly installed in the hot pressing roller; the turning roller is rotatably installed on the left side of the fixed frame; the second bottom supporting film drives the upper film to pass through the hot pressing roller and the hot pressing support roller after passing through the turning roller.

[0015] Further, the position adjusting assembly comprises a position adjusting pressure roller and a position adjusting support roller, a fixed frame is fixedly installed at the ninth station of the rack, and a material belt guide roller is rotatably installed on the fixed frame; the position adjusting support roller is rotatably installed on the fixed frame, and the position adjusting pressure roller driven by a servo motor is rotatably installed on the fixed frame.

[0016] In order to better achieve the purpose of the present application, the present application also provides a new energy circuit board processing method, comprising the following steps: Step one: the copper foil unwinding roller continuously feeds to the right; the first bottom supporting film is adhered to the copper foil material belt by the first protective assembly; the copper foil material belt moves to the sixth station with the first bottom supporting film after the waste is removed by the copper foil waste removal assembly; Step two: the second bottom supporting film is adhered to the upper film by the upper protective assembly, and then the second bottom supporting film and the upper film are moved to the left first; the upper PI film windowing assembly cuts the upper film, and the waste cut on the upper film is removed by the upper protective film; the upper film is adhered to the upper side of the copper foil material belt by the first hot pressing assembly at the sixth station; the first bottom supporting film is separated from the copper foil material belt at the right side of the sixth station; Step three: the third bottom supporting film is adhered to the lower film by the second protective assembly, the lower PI film windowing assembly cuts the lower film, and the lower film is adhered to the lower side of the copper foil material belt by the second hot pressing assembly after the waste is removed by the lower protective film; the second bottom supporting film is separated from the upper film at the right side of the twelfth station; Step four: cutting from top to bottom by the combined circular cutting assembly, cleaning the waste at the positioning hole by the positioning hole waste removal assembly and the fourth bottom supporting film; separating the outer shape waste from the third bottom supporting film, the lower film and the copper foil material belt by the forming and separating assembly.

[0017] Compared with the prior art, the present application has the beneficial effects that: the copper foil unwinding roller continuously feeds to the right; the lower protection assembly one makes the bottom film one adhere to the copper foil tape; the laser cutting machine performs laser cutting on the copper foil tape; after the copper foil waste discharge assembly discharges waste, the copper foil tape moves with the bottom film one to the sixth station; the upper protection assembly adheres the bottom film two to the upper film, and then makes the bottom film two and the upper film move to the left first; the upper PI film windowing assembly cuts the upper film, and the upper protection film removes the cut waste on the upper film; the upper film is adhered to the upper side of the copper foil tape through the heat pressing assembly one at the sixth station; on the right side of the sixth station, the bottom film one is separated from the copper foil tape; the lower protection assembly two makes the bottom film three adhere to the lower film, the lower PI film windowing assembly cuts the lower film, and after the lower protection film discharges waste, the lower film is adhered to the lower side of the copper foil tape through the heat pressing assembly two; on the right side of the twelfth station, the bottom film two is separated from the upper film; the combined round cutting assembly cuts from top to bottom, the positioning hole waste discharge assembly and the bottom film four clean the waste at the positioning hole; the forming and separating assembly separates the outer shape waste from the bottom film three, and separates the bottom film three from the lower film and the copper foil tape; the copper foil tape is cut by laser, and then the upper film and the lower film are processed in sequence to be adhered to the copper foil tape, and the processing is completed; thereby, when small size processing is performed, the cutting precision is ensured, and the continuity and uniformity of the cutout are ensured; compared with the traditional round knife die cutting process, burrs can be effectively reduced, and the product quality is ensured. BRIEF DESCRIPTION OF DRAWINGS

[0018] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings needed to be used in the embodiments or the prior art description. Obviously, the drawings in the following description are only some embodiments of the present application, and other drawings can also be obtained by those skilled in the art without creative labor.

[0019] Figure 1 It is a perspective view of a new energy circuit board processing equipment of the present application; Figure 2 It is a front view of a new energy circuit board processing equipment of the present application; Figure 3 It is a left view of a new energy circuit board processing equipment of the present application; Figure 4 It is a perspective view after part of the structure is cut along Figure 3 A-A direction; Figure 1 ; Figure 5 It is a perspective view after part of the structure is cut along Figure 3 A-A direction; Figure 2 ; Figure 6 It is an enlarged view of Figure 4 B; Figure 7 isometric view of the structure along the direction of A-A Figure 3 isometric view of the structure along the direction of A-A Figure 3 ; Figure 8 isometric view of the structure along the direction of A-A Figure 3 isometric view of the structure along the direction of A-A Figure 4 ; Figure 9 isometric view of the structure along the direction of A-A Figure 3 isometric view of the structure along the direction of A-A Figure 5 ; Figure 10 isometric view of the structure along the direction of A-A Figure 3 isometric view of the structure along the direction of A-A Figure 6 ; Figure 11 isometric view of the structure along the direction of A-A Figure 12 isometric view of the structure along the direction of A-A

[0020] The reference signs in the drawings represent the following: 1, rack; 11, fixed frame; 12, material belt guide roller; 2, copper foil processing mechanism; 21, copper foil unwinding roller; 22, laser cutting machine; 23, copper foil waste discharge assembly; 231, waste discharge unwinding roller one; 232, waste discharge winding roller one; 233, waste discharge support roller; 234, waste discharge pressing roller; 24, lower protection assembly one; 241, lower unwinding roller; 242, lower winding roller; 243, lower separation frame; 244, lower separation block; 245, lower protection pressing roller; 246, lower protection support roller; 3, upper PI film lamination mechanism; 31, upper protection assembly; 311, upper unwinding roller; 312, upper winding roller; 313, upper protection pressing roller; 314, upper protection support roller; 32, upper PI film windowing assembly; 321, PI film mold unwinding roller; 322, protection film unwinding roller; 323, protection film winding roller; 324, PI film round cutting roller; 325, PI film round cutting support roller; 326, waste discharge pressing and pasting roller; 33, hot pressing assembly one; 331, hot pressing roller; 332, hot pressing support roller; 333, turning roller; 34, position adjusting assembly; 341, position adjusting pressing roller; 342, position adjusting support roller; 4, lower PI film lamination mechanism; 41, lower protection assembly two; 42, lower PI film windowing assembly; 43, hot pressing assembly two; 5, forming mechanism; 51, combined round cutting assembly; 511, combined round cutting roller; 512, combined round cutting support roller; 52, positioning hole waste discharge assembly; 521, waste discharge unwinding roller two; 522, waste discharge winding roller two; 523, waste discharge guide roller; 53, forming separation assembly; 531, waste material winding roller; 532, separation roller; 100, copper foil material belt; 101, profile waste material; 200, bottom film one; 300, waste discharge film; 401, bottom film two; 402, upper film; 403, upper protection film; 501, bottom film three; 502, lower film; 503, lower protection film; 600, bottom film four; 611, recycling guide roller; 612, recycling rotating drum; 613, recycling hole; 614, central shaft; 615, negative pressure bin; 616, positive pressure bin; 621, mounting plate; 622, laser generator; 623, laser receiver. DETAILED DESCRIPTION

[0021] In order to make the objects, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are some but not all of the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the protection scope of the present application.

[0022] In the following description, "left", "right", "front", "back", "up", "down" are oriented in the perspective of the front view.

[0023] Embodiment one: in some embodiments, please refer to the description of the accompanying drawings Figure 1 、 Figure 2 and Figures 7-10 A new energy circuit board processing equipment, comprising a rack 1, a copper foil processing mechanism 2, an upper PI film lamination mechanism 3, a lower PI film lamination mechanism 4 and a forming mechanism 5; The rack 1 is sequentially distributed with a total of fifteen stations from the first to the fifteenth along the moving direction of the copper foil tape 100 from left to right; The first station is used for copper foil feeding, the second station is used for pressing the copper foil tape 100 and the bottom film one 200; the third station is used for cutting processing of the copper foil tape 100; the fourth station is used for removing the center waste of the processed copper foil tape 100; the fifth station is used for detecting the cut copper foil tape 100; The sixth to ninth stations are used for separating the bottom film one 200 from the copper foil tape 100, and processing the upper film 402 and bonding the upper film 402 with the upper side of the copper foil tape 100; The tenth to twelfth stations are used for processing the lower film 502 and bonding the lower film 502 with the lower side of the copper foil tape 100, and separating the bottom film two 401 from the upper film 402; The thirteenth station is used for positioning hole waste removal; The fourteenth station is used for removing the outer shape waste 101; The fifteenth station is used for separating the bottom film three 501 from the lower film 502.

[0024] A plurality of tape guide rollers 12 are rotatably installed on the rack 1; As shown in Figure 2 The copper foil processing mechanism 2 comprises a copper foil unwinding roller 21, a laser cutting machine 22, a copper foil waste removal assembly 23 and a lower protection assembly one 24. The copper foil unwinding roller 21 driven by a servo motor is rotatably installed at the first station of the rack 1. The laser cutting machine 22 is fixedly installed at the third station of the rack 1. The copper foil waste removal assembly 23 for removing the waste of the copper foil tape 100 is installed at the fourth station of the rack 1. The lower protection assembly one 24 for bonding the bottom film one 200 with the copper foil tape 100 at the second to sixth stations is installed at the second station of the rack 1; As shown in Figure 2As shown, the upper PI film bonding mechanism 3 includes an upper protective component 31, an upper PI film window opening component 32, a hot pressing component 33, and an adjusting component 34. An upper protective component 31 is installed at the eighth station on the frame 1 to ensure that the second base film 401 and the upper film 402 are bonded at the sixth to twelfth stations. An upper PI film window opening component 32 is installed at the seventh station on the frame 1 to perform window opening processing on the upper film 402. A hot pressing component 33 is installed at the sixth station on the frame 1 to bond the upper film 402 to the upper side of the copper foil strip 100. An adjusting component 34 is installed at the ninth station on the frame 1 to adjust the position of the copper foil strip 100. The tenth to twelfth stations and the fifteenth station on the frame 1 are equipped with a lower PI film bonding mechanism 4 for bonding the lower film 502 to the lower side of the copper foil strip 100 after processing the lower film 502. The thirteenth and fourteenth stations on the frame 1 are equipped with forming mechanisms 5 for discharging waste from positioning holes and outer waste 101.

[0025] like Figure 2 As shown, the forming mechanism 5 includes a combined circular cutting component 51, a positioning hole waste removal component 52, and a forming separation component 53. The combined circular cutting component 51 is installed at the thirteenth station on the frame 1, the positioning hole waste removal component 52 is installed at the thirteenth station on the frame 1, and the forming separation component 53 is installed at the fourteenth station on the frame 1.

[0026] like Figure 2 As shown, the lower PI film bonding mechanism 4 includes a lower protective component 41, a lower PI film window opening component 42, and a hot pressing component 43. The lower protective component 41, which is used to bond the bottom support film 501 and the lower film 502 at the tenth and fifteenth positions on the frame 1, is installed at the eleventh position on the frame 1. The lower PI film window opening component 42 is installed at the eleventh position on the frame 1, and the hot pressing component 43 is installed at the twelfth position on the frame 1.

[0027] In this embodiment, when the new energy circuit board processing equipment is working normally, the copper foil unwinding roller 21 is started to continuously feed the material to the right; the bottom protective component 24 causes the bottom film 200 to adhere to the copper foil strip 100 between the second and fifth stations, thereby protecting the copper foil strip 100; at the third station, the copper foil strip 100 is laser-cut by the laser cutting machine 22; then at the fourth station, the copper foil waste removal component 23 drives the waste removal film 300 to contact the upper layer of the copper foil strip 100, and the waste removal film 300 adheres to the waste generated by the copper foil strip 100 after cutting; at the fifth station, the copper foil strip 100 is image-compared and identified by an external visual inspection system to detect whether the cutting meets the requirements; The detected copper foil material tape 100 moves with the supporting film one 200 to the sixth station; at the same time, the supporting film two 401 is adhered with the upper film 402 through the upper protection assembly 31 at the eighth station, and then the supporting film two 401 and the upper film 402 are moved to the left; the upper film 402 is cut through the upper PI film windowing assembly 32 at the seventh station, and then the cut waste on the upper film 402 is removed through the upper protection film 403; the upper film 402 is adhered with the upper side of the copper foil material tape 100 together through the hot pressing assembly one 33 at the sixth station; and then at the right side of the sixth station, the supporting film one 200 is separated from the copper foil material tape 100; The copper foil material tape 100 after the upper film 402 and the supporting film two 401 are adhered continues to move to the right from the sixth station until moving to the tenth station; in the process, the supporting film three 501 is adhered on the lower film 502 through the lower protection assembly two 41 at the tenth station, and the lower film 502 is cut through the lower PI film windowing assembly 42; after the cutting is completed, the waste is cleaned through the lower protection film 503; the lower film 502 is adhered with the lower side of the copper foil material tape 100 together through the hot pressing assembly two 43 at the twelfth station; and then at the right side of the twelfth station, the supporting film two 401 is separated from the upper film 402; The copper foil material tape 100 continues to move to the right, at the thirteenth station, the supporting film four 600 is adhered with the bottom of the supporting film three 501 through the positioning hole waste removing assembly 52, at this time, the outer shape waste 101 falls on the supporting film three 501 and the waste at the positioning hole falls on the supporting film four 600 through the combined round cutting assembly 51 from top to bottom for cutting; then the waste at the positioning hole is cleaned through the positioning hole waste removing assembly 52 and the supporting film four 600 at the right side of the thirteenth station; at the fourteenth station, the outer shape waste 101 is separated from the supporting film three 501 through the forming and separating assembly 53, and at the fifteenth station, the supporting film three 501 is separated from the lower film 502 and the copper foil material tape 100; so as to complete the processing of the flexible circuit board; In the process, the copper foil material tape 100 is cut through the laser, and then the upper film 402 and the lower film 502 are processed respectively and then adhered on the copper foil material tape 100 in sequence to complete the processing; so as to guarantee the cutting precision and the continuity and uniformity of the cutout when processing small size, and effectively reduce burrs and guarantee product quality compared with the traditional round knife die cutting process.

[0028] In some embodiments, as a preferred embodiment of the present application, as Figure 4 and Figure 6As shown, the copper foil exhaust assembly 23 includes an exhaust pay-off roll one 231, an exhaust winding roll one 232, an exhaust support roll 233 and an exhaust pressure roll 234, and a fixed frame 11 is fixedly installed on the rack 1 at the fourth station; the exhaust pressure roll 234 driven by a servo motor is rotatably installed on the fixed frame 11, and the exhaust support roll 233 for pressing the exhaust film 300 and the upper side of the copper foil material belt 100 together is rotatably installed on the fixed frame 11; the material belt guide roll 12 is rotatably installed on the fixed frame 11; the exhaust pay-off roll one 231 driven by a servo motor is rotatably installed on the rack 1, and the exhaust winding roll one 232 driven by a servo motor is rotatably installed on the rack 1; one end of the exhaust film 300 is wound on the exhaust pay-off roll one 231 and fixedly connected with the exhaust pay-off roll one 231, and the other end of the exhaust film 300 passes through the material belt guide roll 12 and the exhaust pressure roll 234 and is fixedly connected with the exhaust winding roll one 232. The lower protection assembly one 24 includes a lower pay-off roll 241, a lower winding roll 242, a lower separation frame 243, a lower separation block 244, a lower protection pressure roll 245 and a lower protection support roll 246, and a fixed frame 11 is fixedly installed on the rack 1 at the second station; the lower protection pressure roll 245 driven by a servo motor is rotatably installed on the fixed frame 11, and the lower protection support roll 246 for pressing the bottom film one 200 and the lower side of the copper foil material belt 100 together is rotatably installed on the fixed frame 11; the material belt guide roll 12 is rotatably installed on the fixed frame 11; the lower separation frame 243 is installed on the right side of the fixed frame 11 at the sixth station, and the lower separation block 244 is fixedly installed on the lower separation frame 243; the lower pay-off roll 241 driven by a servo motor is rotatably installed on the rack 1, and the lower winding roll 242 driven by a servo motor is rotatably installed on the rack 1; one end of the bottom film one 200 is wound on the exhaust pay-off roll one 231 and fixedly connected with the exhaust pay-off roll one 231, and the other end of the bottom film one 200 moves to the right after passing through the material belt guide roll 12 and the exhaust pressure roll 234 to the sixth station, and is fixedly connected with the lower winding roll 242 after being guided by the lower separation block 244 and the material belt guide roll 12 at the sixth station.

[0029] As Figures 6-8As shown, the upper protection assembly 31 includes an upper unwinding roller 311, an upper winding roller 312, an upper protection pressing roller 313, and an upper protection support roller 314, and a fixed frame 11 is fixedly installed at the eighth station of the rack 1; the upper protection support roller 314 is rotatably installed on the fixed frame 11, a material belt guide roller 12 is rotatably installed on the fixed frame 11, and the upper protection pressing roller 313 driven by a servo motor is rotatably installed on the fixed frame 11; the upper protection pressing roller 313 and the upper protection support roller 314 cooperate to press the second bottom film 401 on the upper film 402; the upper unwinding roller 311 and the upper winding roller 312 driven by a servo motor are rotatably installed on the rack 1; one end of the second bottom film 401 is fixedly connected with the upper unwinding roller 311, and the other end of the second bottom film 401 moves to the left to the sixth station through the guidance of the material belt guide roller 12 and then moves to the right, and after moving to the twelfth station, the second bottom film 401 is fixedly connected with the upper winding roller 312 after passing through a plurality of material belt guide rollers 12; The upper PI film windowing assembly 32 includes a PI film mold unwinding roller 321, a protection film unwinding roller 322, a protection film winding roller 323, a PI film round cutting roller 324, a PI film round cutting support roller 325, and a waste discharge pressing roller 326, and a fixed frame 11 is fixedly installed at the seventh station of the rack 1; the material belt guide roller 12 is rotatably installed on the fixed frame 11, the PI film round cutting support roller 325 is rotatably installed on the fixed frame 11, and the waste discharge pressing roller 326 driven by a servo motor is rotatably installed on the fixed frame 11; the PI film mold unwinding roller 321, the protection film unwinding roller 322, and the protection film winding roller 323 driven by a servo motor are rotatably installed on the rack 1; the end of the upper film 402 is fixedly connected with the PI film mold unwinding roller 321, the upper film 402 passes between the PI film round cutting roller 324 and the PI film round cutting support roller 325, and then is attached with the upper protection film 403 below the waste discharge pressing roller 326; one end of the upper protection film 403 is fixedly connected with the protection film unwinding roller 322, and the other end of the upper protection film 403 is fixedly connected with the protection film winding roller 323 after passing below the waste discharge pressing roller 326; The hot pressing assembly one 33 includes a hot pressing roller 331, a hot pressing support roller 332, and a turning roller 333, a fixed frame 11 is fixedly installed at the sixth station of the rack 1, and the material belt guide roller 12 is rotatably installed on the fixed frame 11; the hot pressing support roller 332 is rotatably installed on the fixed frame 11, and the hot pressing roller 331 driven by a servo motor is rotatably installed on the fixed frame 11; an electric heater for heating the hot pressing roller 331 is fixedly installed in the hot pressing roller 331; the turning roller 333 is rotatably installed on the left side of the fixed frame 11; the second bottom film 401 drives the upper film 402 to pass through the hot pressing roller 331 and the hot pressing support roller 332 after passing through the turning roller 333; the copper foil material belt 100 passes through the hot pressing roller 331 and the hot pressing support roller 332, and the copper foil material belt 100 is located below the upper film 402; The position adjusting assembly 34 comprises a position adjusting pressure roller 341 and a position adjusting support roller 342. A fixed frame 11 is fixedly installed at the ninth station of the rack 1. A tape guide roller 12 is rotatably installed on the fixed frame 11. The position adjusting support roller 342 is rotatably installed on the fixed frame 11. The position adjusting pressure roller 341 driven by a servo motor is rotatably installed on the fixed frame 11. The copper foil tape 100 with the upper film 402 adhered thereto passes between the position adjusting pressure roller 341 and the position adjusting support roller 342 after passing through the tape guide roller 12.

[0030] As shown in Figure 8 and Figure 9 The lower protection assembly two 41 has the same structure as the lower protection assembly one 24. The lower PI film windowing assembly 42 has the same structure as the upper PI film windowing assembly 32. The hot pressing assembly two 43 has the same structure as the hot pressing assembly one 33.

[0031] As shown in Figure 5 and Figure 10 The combined round cutting assembly 51 comprises a combined round cutting roller 511 and a combined round cutting support roller 512. A fixed frame 11 is fixedly installed at the thirteenth station. A tape guide roller 12 is rotatably installed on the fixed frame 11. The fixed frame 11 driven by a servo motor is rotatably installed on the fixed frame 11. The combined round cutting support roller 512 is rotatably installed on the fixed frame 11. Knife molds for cutting off positioning holes and knife molds for cutting off outer shape waste 101 are distributed on the combined round cutting roller 511. The positioning hole waste removal assembly 52 comprises a waste removal pay-off roller two 521, a waste removal take-up roller two 522 and a waste removal guide roller 523. The waste removal guide rollers 523 are rotatably installed on the left and right sides of the fixed frame 11 at the thirteenth station. The waste removal take-up roller two 522 and the waste removal guide roller 523 driven by a servo motor are rotatably installed on the rack 1. One end of the bottom film four 600 is fixedly connected with the waste removal take-up roller two 522. The other end of the bottom film four 600 passes through the waste removal guide roller 523, the combined round cutting roller 511 and the combined round cutting support roller 512 and is fixedly connected with the waste removal pay-off roller two 521. The forming and separating assembly 53 comprises a waste take-up roller 531 and a separating roller 532. A fixed frame 11 is fixedly installed at the fourteenth station of the rack 1. A tape guide roller 12 is rotatably installed on the fixed frame 11. The separating roller 532 is rotatably installed on the fixed frame 11. The waste take-up roller 531 driven by a servo motor is rotatably installed on the rack 1. The cut-off outer shape waste 101 is separated from the copper foil tape 100 under the guidance of the separating roller 532 and is then fixedly connected with the waste take-up roller 531 after passing through the tape guide roller 12.

[0032] In the embodiment, the copper foil unwinding roller 21 continuously feeds to the right; the bottom supporting film I 200 is continuously moved from left to right by the lower unwinding roller 241 and the lower winding roller 242, at the second station, the copper foil ribbon 100 and the bottom supporting film I 200 pass between the lower protective pressing roller 245 and the lower protective supporting roller 246, so as to press and paste the copper foil ribbon 100 and the bottom supporting film I 200 together; then at the third station, the copper foil ribbon 100 located on the upper layer of the bottom supporting film I 200 is cut by the laser cutting machine 22; at the fourth station, the waste film 300 is driven by the waste unwinding roller I 231 and the waste winding roller I 232 to pass between the waste supporting roller 233 and the waste pressing roller 234; the waste film 300 is adhered to the upper layer of the copper foil ribbon 100 by the waste supporting roller 233 and the waste pressing roller 234, so that the waste film 300 is adhered to the cut waste on the copper foil ribbon 100, and then the waste on the copper foil ribbon 100 is removed when the waste film 300 is wound; the copper foil ribbon 100 moves to the sixth station with the bottom supporting film I 200; Meanwhile, the upper unwinding roller 311 and the upper winding roller 312 drive the second bottom supporting film 401 to move from the eighth station to the sixth station and then to the twelfth station; the PI film mold unwinding roller 321 continuously feeds, so that the upper film 402 passes through the upper protective pressing roller 313 and the upper protective supporting roller 314 together with the second bottom supporting film 401 below the eighth station, and the second bottom supporting film 401 and the upper film 402 are adhered through the upper protective pressing roller 313 and the upper protective supporting roller 314; then, at the seventh station, the second bottom supporting film 401 and the upper film 402 pass through between the PI film cutting roller 324 and the PI film cutting supporting roller 325, and the upper film 402 is windowed through the cooperation of the PI film cutting roller 324 and the PI film cutting supporting roller 325; then, the upper film 402 and the second bottom supporting film 401 pass below the waste pressing roller 326; in this process, the protective film unwinding roller 322 and the protective film winding roller 323 drive the upper protective film 403 to pass the waste pressing roller 326 synchronously, the upper protective film 403 and the upper film 402 are adhered through the waste pressing roller 326, so that the waste material on the upper film 402 is adhered through the upper protective film 403, and the waste material on the upper film 402 is cleaned synchronously when the upper protective film 403 is wound by the protective film winding roller 323; then, the second bottom supporting film 401 and the upper film 402 move synchronously to the sixth station, at the sixth station, the second bottom supporting film 401 and the upper film 402 move to the right after turning through the turning roller 333, in this process, the upper film 402 is turned to the lower side of the second bottom supporting film 401, at this time, the upper film 402 is located between the second bottom supporting film 401 and the copper foil material strip 100, so that the second bottom supporting film 401, the upper film 402, the copper foil material strip 100 and the first bottom supporting film 200 pass between the hot pressing roller 331 and the hot pressing supporting roller 332, the lower side of the upper film 402 is heated and pressed on the copper foil material strip 100 through the hot pressing roller 331 and the hot pressing supporting roller 332, so that the upper film 402 and the copper foil material strip 100 are adhered together; at the left side of the sixth station, the first bottom supporting film 200 is wound by the lower winding roller 242 after passing through the lower force distribution block 244, the first bottom supporting film 200 is separated from the copper foil material strip 100, and then the second bottom supporting film 401, the upper film 402 and the copper foil material strip 100 continue to move to the right; At the tenth station, the second bottom supporting film 501 is adhered to the lower film 502 by the lower protective assembly 41, and the lower film 502 is cut by the lower PI film windowing assembly 42; after cutting, the waste material is cleaned by the lower protective film 503; the lower film 502 is adhered to the lower side of the copper foil material strip 100 at the twelfth station through the second hot pressing assembly 43; then, at the right side of the twelfth station, the second bottom supporting film 401 is separated from the upper film 402; The copper foil strip 100 continues to move to the right. At the thirteenth station, the waste discharge unwinding roller 2 521 and the waste discharge rewinding roller 2 522 drive the bottom support film 4 600 to pass between the combined circular cutting roller 511 and the combined circular cutting support roller 512 under the guidance of the waste discharge guide roller 523. This allows the bottom support film 4 600 to adhere to the lower side of the upper film 402, copper foil strip 100, lower film 502, and bottom support film 3 501 that have passed between the combined circular cutting roller 511 and the combined circular cutting support roller 512. Through the cooperation of the combined circular cutting roller 511 and the combined circular cutting support roller 512, the upper film 402 and the copper foil strip 100 are bonded together. The upper film 402, copper foil strip 100, lower film 502, and bottom support film 3 501 are cut. The die on the combined circular cutting support roller 512, used to cut off the waste at the positioning hole, cuts the upper film 402, copper foil strip 100, lower film 502, and bottom support film 3 501, so that the waste at the positioning hole is attached to the bottom support film 4 600. The die on the combined circular cutting support roller 512, used to cut off the outer shape waste 101, cuts the upper film 402, copper foil strip 100, and lower film 502. When the bottom support film 4 600 is wound up by the separation roller 532 after passing around the waste discharge guide roller 523, the waste at the positioning hole is taken away by the bottom support film 4 600. At the fourteenth station, the outer waste material 101 is wound up by the waste material winding roller 531 after passing around the separation roller 532. Then at the fifteenth station, the bottom support film 501 is separated from the lower film 502 and the copper foil strip 100, thereby completing the processing of the flexible circuit board.

[0033] Example 3, in some embodiments, such as Figure 11 and Figure 12 As shown, the frame 1 is also equipped with a recycling mechanism for cleaning the waste on the waste discharge membrane 300. The recycling mechanism includes a recycling component and a detection component; the recycling component and the detection component are installed on the frame 1. The recycling assembly includes a recycling guide roller 611, a recycling drum 612, and a central shaft 614. The recycling guide roller 611 is rotatably mounted on a frame 1, and the recycling drum 612, driven by a servo motor, is mounted on the frame 1. A waste discharge membrane 300 passes between the recycling guide roller 611 and the recycling drum 612, with the side of the waste discharge membrane 300 with the waste material adhering to it aligned with the recycling drum 612. Multiple sets of recycling holes 613 are evenly spaced and arranged in a circumferential array on the recycling drum 612; the recycling holes 613 are aligned with the waste discharge membrane 614. Waste material on 0; the central shaft 614 is fixedly installed on the frame 1, and the recycling drum 612 is rotatably connected to the central shaft 614; the central shaft 614 has a positive pressure channel and a negative pressure channel; a negative pressure chamber 615 is opened on the upper left side of the central shaft 614; the negative pressure chamber 615 is connected to an external vacuum pump through the negative pressure channel on the central shaft 614 and an external hose; a positive pressure chamber 616 is opened on the lower right side of the central shaft 614; the positive pressure chamber 616 is connected to an air pump through the positive pressure channel on the central shaft 614 and an external hose; The detection assembly includes a mounting plate 621, a laser generator 622, and a laser receiver 623. The mounting plate 621 is fixedly mounted on the frame 1, and the laser generator 622 is fixedly mounted on the mounting plate 621. The laser receiver 623 for receiving the laser emitted by the laser generator 622 is fixedly mounted on the frame 1. The waste discharge membrane 300 passes between the laser generator 622 and the laser receiver 623.

[0034] In this embodiment, after the waste discharge membrane 300 adheres to the waste, it moves between the recycling guide roller 611 and the recycling drum 612. The recycling hole 613 on the recycling drum 612, aligned with the waste discharge membrane 300, is connected to the negative pressure chamber 615. An external vacuum pump creates a negative pressure on the upper left side of the recycling drum 612, aligned with the recycling hole 613, to adsorb the waste. After the recycling drum 612 adsorbs the waste through the recycling hole 613, it rotates to the lower right side. At this time, the recycling hole 613 is connected to the positive pressure chamber 616, and an external air pump pumps the recycled material through the recycling hole 613. Waste is blown off the rotating drum 612, thus achieving continuous cleaning of waste and recycling of the waste discharge membrane 300. After cleaning, the waste discharge membrane 300 passes between the laser generator 622 and the laser receiver 623. When there is no waste on the waste discharge membrane 300, the laser emitted by the laser generator 622 is received by the laser receiver 623. If there is waste on the waste discharge membrane 300, the waste blocks the laser, thus preventing the laser receiver 623 from receiving the waste. Therefore, the completeness of waste cleaning is determined by whether the light received by the laser receiver 623 is continuous.

[0035] Example 4: In some embodiments, such as Figures 1-10 As shown, in a preferred embodiment of the present invention, a method for processing a new energy circuit board includes the following steps: Step 1: The copper foil unwinding roller 21 continuously feeds the material to the right; the lower protective component 24 makes the bottom film 200 bond with the copper foil strip 100; the laser cutting machine 22 performs laser cutting on the copper foil strip 100; after the copper foil waste removal component 23 removes the waste, the copper foil strip 100 moves to the sixth station with the bottom film 200. Step 2: The upper protective assembly 31 adheres the bottom support film 401 to the upper film 402, and then moves the bottom support film 401 and the upper film 402 to the left; the upper PI film windowing assembly 32 cuts the upper film 402, and the waste material cut off on the upper film 402 is removed by the upper protective film 403; the upper film 402 is adhered to the upper side of the copper foil strip 100 at the sixth station by the hot pressing assembly 33; at the right side of the sixth station, the bottom support film 200 separates from the copper foil strip 100; Step three: the bottom film three 501 is adhered to the lower film 502 by the lower protection assembly two 41, the lower PI film windowing assembly 42 cuts the lower film 502, the lower protection film 503 discharges waste, and then the lower film 502 is adhered to the lower side of the copper foil material tape 100 by the heat pressing assembly two 43; on the right side of the twelfth station, the bottom film two 401 is separated from the upper film 402; Step four: the positioning hole waste assembly 52 and the bottom film four 600 clean the waste at the positioning hole by cutting from top to bottom through the combined circular cutting assembly 51; the shaped waste 101 is separated from the bottom film three 501 by the shaped separating assembly 53, and the bottom film three 501 is separated from the lower film 502 and the copper foil material tape 100.

[0036] The above examples are only used to illustrate the technical solutions of the present application, but not limit it; although the present application is described in detail with reference to the foregoing examples, those skilled in the art should understand that the technical solutions recorded in the foregoing examples can be modified, or some technical features can be replaced equivalently; and these modifications or replacements will not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present application.

Claims

1. A new energy circuit board processing equipment, comprising a rack (1), a copper foil processing mechanism (2), an upper PI film lamination mechanism (3), a lower PI film lamination mechanism (4) and a forming mechanism (5), characterized in that: a plurality of workstations are arranged on the rack (1) from left to right along the moving direction of the copper foil tape (100), and the total number of the workstations is fifteen; a plurality of tape guide rollers (12) are rotatably installed on the rack (1); the copper foil processing mechanism (2) comprises a copper foil unwinding roller (21), a laser cutting machine (22), a copper foil waste removal assembly (23) and a lower protection assembly one (24), the copper foil unwinding roller (21) driven by a servo motor is rotatably installed at the first workstation on the rack (1); the laser cutting machine (22) is fixedly installed on the rack (1), the copper foil waste removal assembly (23) for removing waste copper foil tape (100) is installed at the fourth workstation on the rack (1), and the lower protection assembly one (24) for enabling the bottom film one (200) and the copper foil tape (100) to be in a lamination state at the second to sixth workstations is installed on the rack (1); the upper PI film lamination mechanism (3) comprises an upper protection assembly (31), an upper PI film windowing assembly (32), a hot pressing assembly one (33) and a position adjusting assembly (34), the upper protection assembly (31) for enabling the bottom film two (401) and the upper film (402) to be in a lamination state at the sixth to twelfth workstations is installed on the rack (1), the upper PI film windowing assembly (32) for windowing the upper film (402) is installed at the seventh workstation on the rack (1), the hot pressing assembly one (33) is installed on the rack (1), and the position adjusting assembly (34) is installed on the rack (1); the lower PI film lamination mechanism (4) is installed on the rack (1); the forming mechanism (5) is installed on the rack (1).

2. The new energy circuit board processing equipment according to claim 1, characterized in that, the forming mechanism (5) comprises a combined round cutting assembly (51), a positioning hole waste removal assembly (52) and a forming separation assembly (53), the combined round cutting assembly (51) is installed at the thirteenth workstation on the rack (1), the positioning hole waste removal assembly (52) is installed at the thirteenth workstation on the rack (1), and the forming separation assembly (53) is installed at the fourteenth workstation on the rack (1).

3. The new energy circuit board processing equipment according to claim 2, characterized in that, the lower PI film lamination mechanism (4) comprises a lower protection assembly two (41), a lower PI film windowing assembly (42) and a hot pressing assembly two (43), the lower protection assembly two (41) for enabling the bottom film three (501) and the lower film (502) to be in a lamination state at the tenth to fifteenth workstations is installed at the tenth and fifteenth workstations on the rack (1); the lower PI film windowing assembly (42) is installed at the eleventh workstation on the rack (1), and the hot pressing assembly two (43) is installed at the twelfth workstation on the rack (1).

4. The new energy circuit board processing equipment according to claim 3, characterized in that, The copper foil exhaust assembly (23) comprises an exhaust pay-off roll one (231), an exhaust winding roll one (232), an exhaust support roll (233) and an exhaust pressing roll (234), a fixed frame (11) is fixedly installed on the rack (1) at the fourth station; the exhaust pressing roll (234) driven by a servo motor is rotatably installed on the fixed frame (11), the exhaust support roll (233) for pressing the exhaust film (300) and the upper side of the copper foil material belt (100) together in cooperation with the exhaust pressing roll (234) is rotatably installed on the fixed frame (11); the material belt guide roller (12) is rotatably installed on the fixed frame (11); the exhaust pay-off roll one (231) driven by a servo motor is rotatably installed on the rack (1), the exhaust winding roll one (232) driven by a servo motor is rotatably installed on the rack (1); one end of the exhaust film (300) is wound on the exhaust pay-off roll one (231) and is fixedly connected with the exhaust pay-off roll one (231), the other end of the exhaust film (300) passes through the material belt guide roller (12) and the exhaust pressing roll (234) and is fixedly connected with the exhaust winding roll one (232).

5. The new energy circuit board processing equipment according to claim 4, characterized in that, The lower protection assembly one (24) comprises a lower pay-off roll (241), a lower winding roll (242), a lower separation frame (243), a lower separation block (244), a lower protection pressing roll (245) and a lower protection support roll (246), a fixed frame (11) is fixedly installed on the rack (1) at the second station; the lower protection pressing roll (245) driven by a servo motor is rotatably installed on the fixed frame (11), the lower protection support roll (246) for pressing the bottom film one (200) and the lower side of the copper foil material belt (100) together in cooperation with the lower protection pressing roll (245) is rotatably installed on the fixed frame (11); the material belt guide roller (12) is rotatably installed on the fixed frame (11); the lower separation frame (243) is installed on the right side of the fixed frame (11) at the sixth station, the lower separation block (244) is fixedly installed on the lower separation frame (243); the lower pay-off roll (241) driven by a servo motor is rotatably installed on the rack (1), the lower winding roll (242) driven by a servo motor is rotatably installed on the rack (1); one end of the bottom film one (200) is wound on the exhaust pay-off roll one (231) and is fixedly connected with the exhaust pay-off roll one (231), the other end of the bottom film one (200) moves to the right after passing through the material belt guide roller (12) and the exhaust pressing roll (234) and is fixedly connected with the lower winding roll (242) after being guided by the lower separation block (244) and the material belt guide roller (12) at the sixth station.

6. The new energy circuit board processing equipment according to claim 5, characterized in that, The upper protection assembly (31) comprises an upper unwinding roller (311), an upper winding roller (312), an upper protection pressing roller (313) and an upper protection supporting roller (314), a fixed frame (11) is fixedly installed at the eighth station of the rack (1); the upper protection supporting roller (314) is rotatably installed on the fixed frame (11), a material belt guide roller (12) is rotatably installed on the fixed frame (11), and the upper protection pressing roller (313) driven by a servo motor is rotatably installed on the fixed frame (11); the upper protection pressing roller (313) and the upper protection supporting roller (314) cooperate to press the second bottoming film (401) on the upper film (402); the upper unwinding roller (311) and the upper winding roller (312) driven by a servo motor are rotatably installed on the rack (1); one end of the second bottoming film (401) is fixedly connected with the upper unwinding roller (311), the other end of the second bottoming film (401) moves to the left to the sixth station through the guidance of the material belt guide roller (12) and then moves to the right, and after moving to the twelfth station, the second bottoming film (401) is fixedly connected with the upper winding roller (312) after passing through a plurality of material belt guide rollers (12).

7. The new energy circuit board processing equipment according to claim 6, characterized in that, The upper PI film windowing assembly (32) comprises a PI film mold unwinding roller (321), a protection film unwinding roller (322), a protection film winding roller (323), a PI film round cutting roller (324), a PI film round cutting supporting roller (325) and a waste discharge pressing roller (326), a fixed frame (11) is fixedly installed at the seventh station of the rack (1); the material belt guide roller (12) is rotatably installed on the fixed frame (11), the PI film round cutting supporting roller (325) is rotatably installed on the fixed frame (11), and the waste discharge pressing roller (326) driven by a servo motor is rotatably installed on the fixed frame (11); the PI film mold unwinding roller (321), the protection film unwinding roller (322) and the protection film winding roller (323) driven by a servo motor are rotatably installed on the rack (1); the end of the upper film (402) is fixedly connected with the PI film mold unwinding roller (321), the upper film (402) passes through between the PI film round cutting roller (324) and the PI film round cutting supporting roller (325), and then the upper protection film (403) is attached to the lower side of the waste discharge pressing roller (326).

8. The new energy circuit board processing equipment according to claim 7, characterized in that, The hot pressing assembly one (33) comprises a hot pressing roller (331), a hot pressing supporting roller (332) and a deflection roller (333), a fixed frame (11) is fixedly installed at the sixth station of the rack (1), and the material belt guide roller (12) is rotatably installed on the fixed frame (11); the hot pressing supporting roller (332) is rotatably installed on the fixed frame (11), and the hot pressing roller (331) driven by a servo motor is rotatably installed on the fixed frame (11); the electric heater for heating the hot pressing roller (331) is fixedly installed in the hot pressing roller (331); the deflection roller (333) is rotatably installed on the left side of the fixed frame (11); the second bottoming film (401) drives the upper film (402) to pass through the hot pressing roller (331) and the hot pressing supporting roller (332) after passing through the deflection roller (333).

9. The new energy circuit board processing equipment method according to claim 8, characterized in that, The position adjusting assembly (34) comprises a position adjusting pressure roller (341) and a position adjusting support roller (342), a fixed frame (11) is fixedly installed at the ninth station of the rack (1), and a material belt guide roller (12) is rotatably installed on the fixed frame (11); the position adjusting support roller (342) is rotatably installed on the fixed frame (11), and the position adjusting pressure roller (341) driven by a servo motor is rotatably installed on the fixed frame (11).

10. A method for processing a new energy circuit board using the new energy circuit board processing apparatus according to claim 9, characterized by, The method comprises the following steps: Step one: the copper foil unwinding roller (21) continuously feeds to the right; the first bottom protection assembly (24) bonds the first bottom protection film (200) and the copper foil material belt (100); the laser cutting machine (22) performs laser cutting on the copper foil material belt (100); after the copper foil waste removal assembly (23) removes the waste, the copper foil material belt (100) moves with the first bottom protection film (200) to the sixth station; Step two: the upper protection assembly (31) bonds the second bottom protection film (401) and the upper film (402), and then moves the second bottom protection film (401) and the upper film (402) to the left; the upper PI film window opening assembly (32) cuts the upper film (402), and the upper protection film (403) removes the waste cut from the upper film (402); the upper film (402) is bonded with the upper side of the copper foil material belt (100) by the first heat pressing assembly (33) at the sixth station; on the right side of the sixth station, the first bottom protection film (200) is separated from the copper foil material belt (100); Step three: the second bottom protection assembly (41) bonds the third bottom protection film (501) and the lower film (502), the lower PI film window opening assembly (42) cuts the lower film (502), and after the lower protection film (503) removes the waste, the lower film (502) is bonded with the lower side of the copper foil material belt (100) by the second heat pressing assembly (43); on the right side of the twelfth station, the second bottom protection film (401) is separated from the upper film (402); Step four: the combined round cutting assembly (51) cuts from top to bottom, the positioning hole waste removal assembly (52) and the fourth bottom protection film (600) clean the waste at the positioning hole; the forming separation assembly (53) separates the outer shape waste (101) from the third bottom protection film (501), and separates the third bottom protection film (501) from the lower film (502) and the copper foil material belt (100).

Images