Processing method of electrode middle frame

Abstract

The application provides a processing method of an electrode middle frame, relates to the technical field of optical part processing technology, and comprises the following steps: cutting two same to-be-processed parts along different cutting lines to obtain a first to-be-processed part, a second to-be-processed part, a third to-be-processed part and a fourth to-be-processed part; processing mounting surfaces and corresponding cutting surfaces of the first to-be-processed part, the second to-be-processed part, the third to-be-processed part and the fourth to-be-processed part by using a first center body and a second center body, and performing optical cementing on corresponding cutting surfaces of the first to-be-processed part and the second to-be-processed part obtained by processing and satisfying a first preset processing parameter and the third to-be-processed part and the fourth to-be-processed part obtained by processing and satisfying a second preset processing parameter, processing mounting surfaces and cutting surfaces of four cutting parts obtained by cutting the two to-be-processed parts respectively, and then performing optical cementing on corresponding cutting surfaces of the four cutting parts to form the electrode middle frame, so that the processing technical difficulty is greatly reduced under the premise of ensuring the processing precision of the electrode middle frame.

Description

Technical Field

[0001] This application relates to the technical field of optical part processing, and particularly to a processing method for an electrode middle frame. Background Art

[0002] As a new type of optical part, the electrode middle frame has a different structure from general optical parts. Its structure is in the shape of a "hui" character sheet structure. In the processing requirements for the mechanical processing surface structure, the optical processing includes all surfaces inside the "hui" character. Currently, the processing of all surfaces inside the "hui" character depends on manual processing by technicians. There are strict requirements for processing accuracy and geometric tolerance, and there is a high technical threshold. It is difficult for non-professional technicians to achieve its processing. Summary of the Invention

[0003] In view of the above-mentioned defects or deficiencies in the prior art, this application aims to provide a processing method for an electrode middle frame.

[0004] A processing method for an electrode middle frame provided by this application includes:

[0005] Cut the part to be processed along a first cutting line and a second cutting line symmetric with respect to its axis to form four cut parts respectively, and take the cut parts on the side of the first cutting line and the second cutting line away from the symmetry axis as the first part to be processed and the second part to be processed; wherein, the part to be processed is a hui-shaped frame body formed by sequentially connecting a first frame, a second frame, a third frame and a fourth frame, the axis, the first cutting line and the second cutting line are all parallel to the first frame, and first installation surfaces and third installation surfaces are formed by the inner sides of the first frame and the third frame extending towards the inside of the hui-shaped frame body, and the first cutting line and the second cutting line are both located between the first installation surface and the third installation surface;

[0006] Cut another part to be processed along a third cutting line and a fourth cutting line symmetric with respect to its axis to form four cut parts respectively, and take the cut parts between the third cutting line and the fourth cutting line as the third part to be processed and the fourth part to be processed; second installation surfaces and fourth installation surfaces are formed by the inner sides of the second frame and the fourth frame extending towards the inside of the hui-shaped frame body, the third cutting line is on the side of the first cutting line away from the axis, and the fourth cutting line is on the side of the second cutting line away from the axis;

[0007] Fix the first part to be processed, the second part to be processed, the third part to be processed and the fourth part to be processed through a first center support body, and grind and polish the cutting surfaces, the first installation surface, the third installation surface, the second installation surface and the fourth installation surface of the first part to be processed and the second part to be processed, so that the first processed part and the second processed part meet the first preset processing parameters;

[0008] The third and fourth workpieces to be processed are fixed by the second center support, and the cutting surfaces of the third and fourth workpieces to be processed are ground and polished so that the corresponding third and fourth workpieces to be processed meet the second preset processing parameters.

[0009] The first workpiece to be processed, the second workpiece to be processed, the third workpiece to be processed, and the fourth workpiece to be processed are coated with a light adhesive using a light adhesive assembly on their respective cut surfaces.

[0010] According to the technical solutions provided in certain embodiments of this application, the method further includes: cutting an initial blank along a plane parallel to its outer surface and containing the axis to form two blanks to be processed; performing optical processing and mechanical processing on the two blanks to be processed to obtain two identical parts to be processed that both satisfy the third preset processing parameters.

[0011] According to the technical solutions provided in certain embodiments of this application, the first center support is a regular hexahedron, and the first center support has four fixing surfaces and a first grinding and polishing surface, and the four fixing surfaces are perpendicular to the first grinding and polishing surface; correspondingly, fixing the first workpiece to be processed, the second workpiece to be processed, the third workpiece to be processed, and the fourth workpiece to be processed by the first center support includes:

[0012] The first workpiece to be processed and the second workpiece to be processed are fixed to two of the fixed surfaces, and the third workpiece to be processed and the fourth workpiece to be processed are fixed to the other two fixed surfaces, so that the first grinding and polishing surface is on the same plane as the cutting surface, the first mounting surface, the second mounting surface, the third mounting surface, and the fourth mounting surface.

[0013] According to the technical solutions provided in certain embodiments of this application, the second center abutment is a regular hexahedron, and the second center abutment has four fixing surfaces and a second grinding and polishing surface, and the four fixing surfaces are perpendicular to the grinding and polishing surface; correspondingly, fixing the third workpiece and the fourth workpiece to be processed by the second center abutment includes:

[0014] The third and fourth workpieces to be processed are fixed relative to each other on the two fixed surfaces, so that the second grinding and polishing surface and the cutting surface are on the same plane.

[0015] According to the technical solutions provided in certain embodiments of this application, the third workpiece and the fourth workpiece are fixed relative to each other on the two fixed surfaces of the second center body, so that the second grinding and polishing surface and the cutting surface are on the same plane.

[0016] According to the technical solutions provided in certain embodiments of this application, the photoresist assembly includes a first positioning surface, a second positioning surface, and a third positioning surface that are perpendicular to each other; the step of applying photoresist to the first workpiece to be processed, the second workpiece to be processed, the third workpiece to be processed, and the fourth workpiece to be processed on their respective cut surfaces using the photoresist assembly includes:

[0017] The first workpiece to be processed and the fourth workpiece to be processed are coated with a light adhesive through the first positioning surface, the second positioning surface and the third positioning surface;

[0018] The second workpiece to be processed and the fourth workpiece to be processed are coated with a light adhesive through the first positioning surface, the second positioning surface, and the third positioning surface;

[0019] The first, second, and third positioning surfaces are used to apply a light adhesive to the corresponding cut surfaces of the first workpiece to be processed, the second workpiece to be processed, and the third workpiece to be processed.

[0020] According to the technical solutions provided in certain embodiments of this application, the step of applying a light adhesive to the corresponding cutting surfaces of the first workpiece to be processed and the fourth workpiece to be processed via the first positioning surface, the second positioning surface, and the third positioning surface includes:

[0021] The first workpiece to be processed abuts against the first positioning surface, the second positioning surface, and the third positioning surface;

[0022] The fourth workpiece to be processed abuts against the first positioning surface and the third positioning surface;

[0023] One of the cut surfaces of the first workpiece to be processed is brought into contact with one of the cut surfaces of the fourth workpiece to be processed, and then coated with a light adhesive.

[0024] According to the technical solutions provided in certain embodiments of this application, the step of using the first positioning surface, the second positioning surface, and the third positioning surface to connect the corresponding cutting surfaces of the second workpiece to be processed and the fourth workpiece to be processed with adhesive includes:

[0025] The second workpiece to be processed abuts against the first positioning surface and the third positioning surface;

[0026] One of the cut surfaces of the second workpiece to be processed is brought into contact with the other cut surface of the fourth workpiece to be processed and then coated with adhesive.

[0027] According to the technical solutions provided in certain embodiments of this application, the step of using the first positioning surface, the second positioning surface, and the third positioning surface to bond the corresponding cutting surfaces of the second workpiece to be processed and the third workpiece to be processed with adhesive includes:

[0028] The third workpiece to be processed is brought into contact with the first positioning surface and the third positioning surface;

[0029] The second workpiece to be processed is brought into contact with the second positioning surface and the third positioning surface;

[0030] One cut surface of the third workpiece to be processed is brought into contact with another cut surface of the second workpiece to be processed and then coated with adhesive. The other cut surface of the third workpiece to be processed is brought into contact with another cut surface of the first workpiece to be processed and then coated with adhesive.

[0031] According to the technical solutions provided in certain embodiments of this application, the first preset processing parameters, the second preset processing parameters, and the third preset processing parameters include surface shape, surface defects, size, and parallelism.

[0032] Compared with the prior art, the beneficial effects of this application are as follows: This application provides a processing method for an electrode middle frame, the method comprising: cutting two identical parts to be processed along different cutting lines to obtain a first part to be processed, a second part to be processed, a third part to be processed, and a fourth part to be processed; processing the mounting surfaces and corresponding cutting surfaces of the first part to be processed, the second part to be processed, the third part to be processed, and the fourth part to be processed through a first center support and a second center support; applying a photoresist to the corresponding cutting surfaces of the first part to be processed and the second part to be processed that meet a first preset processing parameter, as well as the third part to be processed and the fourth part to be processed that meet a second preset processing parameter; and processing the mounting surfaces and cutting surfaces of the four parts to be processed from the two parts to be processed, and then applying a photoresist to the corresponding cutting surfaces to form an electrode middle frame, thereby greatly reducing the processing technical difficulty while ensuring the processing accuracy of the electrode middle frame.

[0033] It should be understood that the descriptions of technical features, technical solutions, beneficial effects, or similar language in this application do not imply that all features and advantages can be achieved in any single embodiment. Rather, it is understood that the description of a feature or beneficial effect means that a specific technical feature, technical solution, or beneficial effect is included in at least one embodiment. Therefore, the descriptions of technical features, technical solutions, or beneficial effects in this specification do not necessarily refer to the same embodiment. Furthermore, the technical features, technical solutions, and beneficial effects described in this embodiment can be combined in any suitable manner. Those skilled in the art will understand that embodiments can be implemented without one or more specific technical features, technical solutions, or beneficial effects of a particular embodiment. In other embodiments, additional technical features and beneficial effects may be identified in specific embodiments that do not embody all embodiments. Attached Figure Description

[0034] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0035] Figure 1 A flowchart illustrating an electrode frame fabrication method provided in this application embodiment;

[0036] Figure 2 This is a schematic diagram of the structure of an electrode frame provided in an embodiment of this application;

[0037] Figure 3 This is a schematic diagram of the structure of the initial blank provided in the embodiments of this application;

[0038] Figure 4 This is a schematic diagram of the structure of the blank to be processed provided in the embodiments of this application;

[0039] Figure 5 This is a schematic diagram of the structure of the blank to be processed and the polished sheet provided in the embodiments of this application;

[0040] Figure 6 This is a schematic diagram of the structure of the part to be processed provided in an embodiment of this application;

[0041] Figure 7 This application provides a schematic diagram of the structure of the first workpiece to be processed and the second workpiece to be processed in an embodiment of the present application.

[0042] Figure 8 This is a schematic diagram of the structure of the third and fourth workpieces to be processed provided in the embodiments of this application;

[0043] Figure 9 This is a schematic diagram of the structure of the first central support body fixed with photoresist according to an embodiment of this application;

[0044] Figure 10 This is a schematic diagram of the structure of the second central support body fixed with photoresist according to an embodiment of this application;

[0045] Figure 11 A schematic diagram of the structure for fixing the second central support body with photoresist according to another embodiment of the application;

[0046] Figure 12 A schematic diagram of the fourth workpiece to be processed and the first and second workpieces to be processed, provided in the embodiments of this application;

[0047] Figure 13 The third workpiece to be processed provided in the embodiments of this application is shown in the optical adhesive diagrams of the first workpiece to be processed and the second workpiece to be processed.

[0048] The text labels in the image represent:

[0049] 1. First cutting line; 2. Second cutting line; 3. Third cutting line; 4. Fourth cutting line; 5. Part to be processed; 6. First part to be processed; 7. Second part to be processed; 8. Third part to be processed; 9. Fourth part to be processed; 10. First mounting surface; 11. Second mounting surface; 12. Third mounting surface; 13. Fourth mounting surface; 14. First center support; 15. First grinding and polishing surface; 16. Second center support; 17. Second grinding and polishing surface; 18. Gloss adhesive assembly; 19. First positioning surface; 20. Second positioning surface; 21. Third positioning surface; 22. Initial blank; 23. Blank to be processed; 24. First cutting surface; 25. Second cutting surface; 26. Third cutting surface; 27. Fourth cutting surface; 28. Fifth cutting surface; 29. ​​Sixth cutting surface; 30. Seventh cutting surface; 31. Eighth cutting surface. Detailed Implementation

[0050] To enable those skilled in the art to better understand the technical solutions of this application, the technical solutions in the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. The descriptions in this section are merely illustrative and explanatory, and should not be construed as limiting the scope of protection of this application. Specifically, the described embodiments are only some embodiments of this application, not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort should fall within the scope of protection of this application.

[0051] It should be noted that similar reference numerals and letters in the following figures denote similar items; therefore, once an item is defined in one figure, it does not need to be further defined and explained in subsequent figures. Furthermore, the terms "comprising" and "having," and any variations thereof, are intended to cover non-exclusive inclusion. For example, a process, method, system, product, or apparatus that comprises a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to such process, method, product, or apparatus.

[0052] As mentioned in the background section, such as Figure 1 As shown, to address the problems in the prior art, this embodiment provides a method for processing an electrode frame, including:

[0053] S1. The part to be processed 5 is cut along the first cutting line 1 and the second cutting line 2, which are symmetrical with respect to its axis, to form four cutting parts. The cutting parts on the side away from the axis of symmetry of the first cutting line 1 and the second cutting line 22 are designated as the first part to be processed 6 and the second part to be processed 7. The part to be processed 5 is a U-shaped frame formed by connecting the first frame, the second frame, the third frame and the fourth frame in sequence. The axis, the first cutting line 1 and the second cutting line 2 are all parallel to the first frame. The inner sides of the first frame and the third frame extend into the U-shaped frame to form the first mounting surface 10 and the third mounting surface 12. The first cutting line 1 and the second cutting line 2 are both located between the first mounting surface 10 and the third mounting surface 12.

[0054] Specifically, such as Figure 7 As shown, the initial blank 22 is cut along a plane parallel to its outer surface and containing the axis to form two blanks 23 to be processed. Optical and mechanical processing are performed on the two blanks 23 to obtain two identical parts 5 to be processed, both satisfying a third preset processing parameter, which includes: surface shape, surface defects, dimensions, and parallelism. One of the parts 5 to be processed is cut along a first cutting line 1 and a second cutting line 2 symmetrical about its axis to form four cut pieces. The cut piece on the side of the first cutting line 1 away from the axis of symmetry is designated as the first part 6 to be processed, and the cut piece on the side of the second cutting line 2 away from the axis of symmetry is designated as the second part 7 to be processed. The first part 6 to be processed includes a first cutting surface 24 and a second cutting surface 25 sequentially along a first direction, and the second part 7 to be processed includes a third cutting surface 26 and a fourth cutting surface 27 sequentially along the first direction. The part 5 to be processed is a U-shaped frame formed by sequentially connecting a first frame, a second frame, a third frame, and a fourth frame. The axis, the first cutting line 1, and the second cutting line 2 are all parallel to the first frame. The inner sides of the first frame and the third frame extend into the U-shaped frame to form the first mounting surface 10 and the third mounting surface 12. The distances between the first cutting surface 24 and the second cutting surface 25 and the outer side of the first frame are both greater than the distance between the first mounting surface 10 and the outer side of the first frame. The distances from the third cutting surface 26 and the fourth cutting surface 27 to the outside of the third frame are greater than the distance from the third mounting surface 12 to the outside of the third frame, so that there is a machining allowance when processing the first workpiece and the second workpiece in the future.

[0055] S2. The other part to be processed 5 is cut along the third cutting line 3 and the fourth cutting line 4, which are symmetrical with respect to its axis, to form four cutting parts. The cutting parts between the third cutting line 3 and the fourth cutting line 4 are designated as the third part to be processed 8 and the fourth part to be processed 9. The inner sides of the second frame and the fourth frame extend into the inside of the U-shaped frame to form the second mounting surface 11 and the fourth mounting surface 13. The third cutting line 3 is located on the side of the first cutting line 1 away from the axis, and the fourth cutting line 4 is located on the side of the second cutting line 2 away from the axis.

[0056] Specifically, such as Figure 8 As shown, another identical workpiece 5 is cut along a third cutting line 3 and a fourth cutting line 4 symmetrical with respect to its axis to form four cut pieces. The cut pieces between the third cutting line 3 and the fourth cutting line 4 are designated as the third workpiece 8 and the fourth workpiece 9. The third workpiece 8 includes a fifth cutting surface 28 and a sixth cutting surface 29 in sequence along the second direction, and the fourth workpiece 9 includes a seventh cutting surface 30 and an eighth cutting surface 31 in sequence along the second direction. The inner sides of the second frame and the fourth frame extend into the U-shaped frame to form a second mounting surface 11 and a fourth mounting surface 13. The third cutting line 3 is located on the side of the first cutting line 1 away from the axis, and the distance between the third cutting line 3 and the fourth cutting line 4 is greater than the distance between the first cutting line 1 and the second cutting line 2, so that there is a machining allowance when processing the third workpiece and the fourth workpiece.

[0057] S3. The first workpiece 6, the second workpiece 7, the third workpiece 8, and the fourth workpiece 9 are fixed by the first center support body 14, and the cutting surfaces, the first mounting surface 10, the third mounting surface 12, the second mounting surface 11, and the fourth mounting surface 13 of the first workpiece 6 and the second workpiece 7 are ground and polished so that the first workpiece and the second workpiece meet the first preset processing parameters.

[0058] Specifically, such as Figure 9As shown, the first center support 14 is a regular hexahedron, and the first center support 14 has four fixed surfaces perpendicular to the first grinding and polishing surface 15. The first workpiece 6 and the second workpiece 7 are fixed to two of the fixed surfaces, and the third workpiece 8 and the fourth workpiece 9 are fixed to the other two fixed surfaces, so that the first grinding and polishing surface 15 is on the same plane as the cutting surface, the first mounting surface 10, the second mounting surface 11, the third mounting surface 12, and the fourth mounting surface 13. The first cutting surface 24, the second cutting surface 25, the third cutting surface 26, the fourth cutting surface 27, the first mounting surface 10, the third mounting surface 12, the second mounting surface 11, and the fourth mounting surface 13 are ground and polished so that the first workpiece and the second workpiece meet the first preset processing parameters, wherein the first preset processing parameters include: surface shape, surface defects, size, and parallelism.

[0059] S4. Fix the third workpiece 8 and the fourth workpiece 9 to be processed by the second center support 16, and grind and polish the cutting surfaces of the third workpiece 8 and the fourth workpiece 9 to make the corresponding third workpiece 8 and the fourth workpiece 9 meet the second preset processing parameters.

[0060] Specifically, such as Figure 10-11 As shown, the second center support 16 is a regular hexahedron, and the second center support 16 has four fixed surfaces and a second grinding and polishing surface 17, and the four fixed surfaces are perpendicular to the grinding and polishing surface; the third workpiece 8 and the fourth workpiece 9 are fixed relative to each other on the two fixed surfaces, so that the second grinding and polishing surface 17 is on the same plane as the fifth cutting surface 28 and the seventh cutting surface 30, and the fifth cutting surface 28 and the seventh cutting surface 30 are ground and polished; after the third workpiece 8 and the fourth workpiece 9 are disassembled, they are re-fixed relative to each other on the two fixed surfaces, so that the second grinding and polishing surface 17 is on the same plane as the sixth cutting surface 29 and the eighth cutting surface 31, and the sixth cutting surface 29 and the eighth cutting surface 31 are ground and polished, so that the corresponding third workpiece 8 and the fourth workpiece 9 meet the second preset processing parameters, wherein the second preset processing parameters include: surface shape, surface defects, size and parallelism.

[0061] S5. Apply a light adhesive to the corresponding cut surfaces of the first workpiece 6, the second workpiece 7, the third workpiece 8, and the fourth workpiece 9 using the light adhesive assembly 18.

[0062] Specifically, such as Figure 12-13 As shown, the photoresist assembly 18 includes a first positioning surface 19, a second positioning surface 20, and a third positioning surface 21 that are perpendicular to each other;

[0063] The first workpiece 6 and the fourth workpiece 9 are coated with a light adhesive through the first positioning surface 19, the second positioning surface 20 and the third positioning surface 21;

[0064] The second workpiece 7 and the fourth workpiece 9 are coated with a light adhesive through the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21;

[0065] The first positioning surface 19, the second positioning surface 20, and the third positioning surface 21 are used to apply a light adhesive to the corresponding cut surfaces of the first workpiece 6, the second workpiece 7, and the third workpiece 8.

[0066] This application provides a method for processing an electrode frame, which involves cutting two identical parts to be processed along different cutting lines to obtain a first part to be processed, a second part to be processed, a third part to be processed, and a fourth part to be processed; processing the mounting surfaces and corresponding cutting surfaces of the first part to be processed, the second part to be processed, the third part to be processed, and the fourth part to be processed using a first center support and a second center support; and applying a photoresist adhesive to the corresponding cutting surfaces of the first part to be processed and the second part to be processed, as well as the third part to be processed and the fourth part to be processed, which satisfy a first preset processing parameter and satisfy a second preset processing parameter. By processing the mounting surfaces and cutting surfaces of the four parts to be processed from the two parts to be processed, and then applying a photoresist adhesive to the corresponding cutting surfaces to form an electrode frame, the processing technical difficulty is greatly reduced while ensuring the processing accuracy of the electrode frame.

[0067] In a preferred embodiment, the initial blank 22 is cut along a plane parallel to its outer surface and containing the axis to form two blanks 23 to be processed. The two blanks 23 to be processed are subjected to optical processing and mechanical processing to obtain two identical parts 5 to be processed that both meet the third preset processing parameters.

[0068] like Figure 3-6As shown, the initial blank 22 is a regular hexahedron, and all six faces can be glued. Each face of the initial blank 22 is ground and polished to make each opposite face parallel and each adjacent face perpendicular. The initial blank 22 is then cut along a plane parallel to its outer surface and containing its axis to form two blanks 23 to be processed. Each of the two blanks 23 includes a first blank cutting surface and a second blank cutting surface, and the distances from the first and second blank cutting surfaces to their opposite faces are equal. The two blanks 23 are then completely glued onto surfaces that are glued with the initial blank 22. The first and second blank cutting surfaces are ground and polished to ensure they are at the same horizontal level and can be coated. After removing the two optically processed blanks from the coating sheet, they are machined using a Mikron lathe to obtain two identical parts 5 that meet the requirements for the positions of holes and slots. The requirements for the positions of holes and slots are consistent with those of the electrode frame in the prior art, and will not be elaborated here. A 0.1mm optical machining allowance is reserved for the length, width, and thickness. The Mikron lathe can also be replaced with lathes of other brands for machining, and different adjustments can be made according to the specific situation. No specific limitation is made here.

[0069] In a preferred embodiment, the first center abutment 14 is a regular hexahedron, and the first center abutment 14 has four fixing surfaces perpendicular to the first grinding and polishing surface 15; correspondingly, fixing the first workpiece 6, the second workpiece 7, the third workpiece 8, and the fourth workpiece 9 through the first center abutment 14 includes:

[0070] The first workpiece 6 and the second workpiece 7 are fixed to two of the fixed surfaces, and the third workpiece 8 and the fourth workpiece 9 are fixed to the other two fixed surfaces, so that the first grinding and polishing surface 15 is on the same plane as the cutting surface, the first mounting surface 10, the second mounting surface 11, the third mounting surface 12, and the fourth mounting surface 13.

[0071] like Figure 9As shown, the surface shape of the first center support 14 satisfies the requirement of complete gluing with the first workpiece 6, the second workpiece 7, the third workpiece 8, and the fourth workpiece 9. The first workpiece 6 and the second workpiece 7 are glued to two of the fixed surfaces, and the third workpiece 8 and the fourth workpiece 9 are glued to the other two fixed surfaces. The first cutting surface 24, the second cutting surface 25, the third cutting surface 26, the fourth cutting surface 27, the first mounting surface 10, the second mounting surface 11, the third mounting surface 12, and the fourth mounting surface 13 are on the same plane. The first cutting surface 24, the second cutting surface 25, the third cutting surface 26, the fourth cutting surface 27, the first mounting surface 10, the second mounting surface 11, the third mounting surface 12, and the fourth mounting surface 13 are ground and polished until their surface shapes are gluing. After gluing, the first workpiece 6, the second workpiece 7, the third workpiece 8, and the fourth workpiece 9 glued to the first center support 14 are removed.

[0072] In a preferred embodiment, the second center abutment 16 is a regular hexahedron, and the second center abutment 16 has four fixing surfaces perpendicular to the second grinding and polishing surface 17; correspondingly, fixing the third workpiece 8 and the fourth workpiece 9 by the second center abutment 16 includes:

[0073] The third workpiece 8 and the fourth workpiece 9 are fixed relative to each other on the two fixed surfaces so that the second grinding and polishing surface 17 and the cutting surface are on the same plane.

[0074] like Figure 10 As shown, the surface shape of the second center support 16 satisfies the requirement of complete gluing with the third workpiece 8 and the fourth workpiece 9. The third workpiece 8 and the fourth workpiece 9 are glued to the two fixed surfaces so that the second grinding and polishing surface 17 is on the same plane as the fifth cutting surface 28 and the seventh cutting surface 30. The fifth cutting surface 28 and the seventh cutting surface 30 are ground and polished until their surfaces are glued. Then, the third workpiece 8 and the fourth workpiece 9 are removed from the first center support 14.

[0075] In a preferred embodiment, the third workpiece 8 and the fourth workpiece 9 are fixed relative to each other on the two fixed surfaces of the second center support 16, so that the second grinding and polishing surface 17 and the cutting surface are on the same plane.

[0076] like Figure 11As shown, the third workpiece 8 and the fourth workpiece 9 are glued to the two fixed surfaces so that the second grinding and polishing surface 17 is on the same plane as the sixth cutting surface 29 and the eighth cutting surface 31. The sixth cutting surface 29 and the eighth cutting surface 31 are ground and polished until their surfaces are glued. Then, the third workpiece 8 and the fourth workpiece 9 glued to the first central abutment 14 are removed.

[0077] In a preferred embodiment, the photoresist assembly 18 includes a first positioning surface 19, a second positioning surface 20, and a third positioning surface 21 that are perpendicular to each other; the process of applying photoresist to the corresponding cut surfaces of the first workpiece 6, the second workpiece 7, the third workpiece 8, and the fourth workpiece 9 through the photoresist assembly 18 includes:

[0078] The first workpiece 6 and the fourth workpiece 9 are coated with a light adhesive through the first positioning surface 19, the second positioning surface 20 and the third positioning surface 21;

[0079] The second workpiece 7 and the fourth workpiece 9 are coated with a light adhesive through the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21;

[0080] The first positioning surface 19, the second positioning surface 20, and the third positioning surface 21 are used to apply a light adhesive to the corresponding cut surfaces of the first workpiece 6, the second workpiece 7, and the third workpiece 8.

[0081] like Figure 12-13As shown, the photoresist assembly 18 includes a first positioning surface 19, a second positioning surface 20, and a third positioning surface 21 that are perpendicular to each other and meet the requirements for surface shape and quality. The first workpiece 6 abuts against the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21; the second workpiece 7 abuts against the first positioning surface 19 and the third positioning surface 21; and the fourth workpiece 9 abuts against the first positioning surface 19 and the third positioning surface 21, so as to position the first workpiece 6, the second workpiece 7, and the fourth workpiece 9, and to position the cutting surfaces of the first workpiece 6 and the second workpiece 7 against the fourth workpiece 9. Apply a light adhesive to the cut surface corresponding to the workpiece 9; adjust the position of the light adhesive assembly 18 so that the first workpiece 6 abuts against the first positioning surface 19 and the third positioning surface 21, the second workpiece 7 abuts against the second positioning surface 20 and the third positioning surface 21, the third positioning surface 21 abuts against the first positioning surface 19 and the third positioning surface 21, and the fourth workpiece 9 abuts against the third positioning surface 21, so that the third workpiece 8 is positioned with the first workpiece 6, the second workpiece 7, and the fourth workpiece 9 after light adhesive application, and apply a light adhesive to the cut surface corresponding to the cut surface of the third workpiece 8, with the cut surface of the first workpiece 6 and the cut surface of the second workpiece 7 respectively.

[0082] In a preferred embodiment, the step of using the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21 to bond the corresponding cut surfaces of the first workpiece 6 and the fourth workpiece 9 includes:

[0083] The first workpiece 6 to be processed abuts against the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21; the fourth workpiece 9 to be processed abuts against the first positioning surface 19 and the third positioning surface 21.

[0084] One of the cut surfaces of the first workpiece 6 to be processed is brought into contact with one of the cut surfaces of the fourth workpiece 9 to be processed, and then coated with a light adhesive.

[0085] like Figure 12 As shown, the first workpiece 6 to be processed is abutted against the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21; the fourth workpiece 9 to be processed is abutted against the first positioning surface 19 and the third positioning surface 21, and the second cutting surface 25 is coated with adhesive on the seventh cutting surface 30.

[0086] In a preferred embodiment, the adhesive used to separate the cut surfaces of the second workpiece 7 and the fourth workpiece 9 via the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21 includes:

[0087] The second workpiece 7 to be processed abuts against the first positioning surface 19 and the third positioning surface 21;

[0088] One of the cut surfaces of the second workpiece 7 is brought into contact with the other cut surface of the fourth workpiece 9 and then coated with adhesive.

[0089] like Figure 12 As shown, the second workpiece 7 to be processed is abutted against the first positioning surface 19 and the third positioning surface 21, the fourth workpiece 9 to be processed is abutted against the first positioning surface 19 and the third positioning surface 21, and the fourth cutting surface 27 is coated with adhesive on the eighth cutting surface 31.

[0090] In a preferred embodiment, the step of using the first positioning surface 19, the second positioning surface 20, and the third positioning surface 21 to bond the corresponding cut surfaces of the second workpiece 7 and the third workpiece 8 includes:

[0091] The third workpiece 8 to be processed is brought into contact with the first positioning surface 19 and the third positioning surface 21;

[0092] The second workpiece 7 to be processed is brought into contact with the second positioning surface 20 and the third positioning surface 21;

[0093] One cut surface of the third workpiece 8 and another cut surface of the second workpiece 7 are brought into contact and coated with adhesive, and the other cut surface of the third workpiece 8 is brought into contact with the other cut surface of the first workpiece 6 and coated with adhesive.

[0094] like Figure 13 As shown, the photoresist assembly is rotated so that the third workpiece 8 abuts against the first positioning surface 19 and the third positioning surface 21, the second workpiece 7 abuts against the second positioning surface 20 and the third positioning surface 21, and the first workpiece 6 abuts against the third positioning surface 21. After photoresisting the first cutting surface 24 and the fifth cutting surface 28, and the third cutting surface 26 and the sixth cutting surface 29, the internal processing is achieved. Figure 2 The electrode frame shown.

[0095] In a preferred embodiment, the first preset processing parameters, the second preset processing parameters, and the third preset processing parameters include surface shape, surface defects, dimensions, and parallelism. Other types of processing settings and adjustments may also be included, and are not specifically limited here.

[0096] This application provides a method for processing an electrode frame, which involves cutting two identical parts to be processed along different cutting lines to obtain a first part to be processed, a second part to be processed, a third part to be processed, and a fourth part to be processed; processing the mounting surfaces and corresponding cutting surfaces of the first part to be processed, the second part to be processed, the third part to be processed, and the fourth part to be processed using a first center support and a second center support; and applying a photoresist adhesive to the corresponding cutting surfaces of the first part to be processed and the second part to be processed, as well as the third part to be processed and the fourth part to be processed, which satisfy a first preset processing parameter and satisfy a second preset processing parameter. By processing the mounting surfaces and cutting surfaces of the four parts to be processed from the two parts to be processed, and then applying a photoresist adhesive to the corresponding cutting surfaces to form an electrode frame, the processing technical difficulty is greatly reduced while ensuring the processing accuracy of the electrode frame.

[0097] This document uses specific examples to illustrate the principles and implementation methods of this application. The descriptions of the above embodiments are only for the purpose of helping to understand the methods and core ideas of this application. The above descriptions are only preferred embodiments of this application. It should be noted that due to the limitations of written expression, while there are objectively infinite specific structures, those skilled in the art can make several improvements, modifications, or changes without departing from the principles of this invention, and can also combine the above technical features in an appropriate manner. These improvements, modifications, changes, or combinations, or the direct application of the inventive concept and technical solution to other situations without modification, should all be considered within the scope of protection of this application.

Claims

1. A method for processing an electrode frame, characterized in that, The processing method includes: S1. The part to be processed (5) is cut along the first cutting line (1) and the second cutting line (2) symmetrical with respect to its axis to form four cutting parts. The cutting parts on the side of the first cutting line (1) and the second cutting line away from the axis are designated as the first part to be processed (6) and the second part to be processed (7). The part to be processed (5) is a U-shaped frame formed by connecting the first frame, the second frame, the third frame and the fourth frame in sequence. The axis, the first cutting line (1) and the second cutting line (2) are all parallel to the first frame. The inner sides of the first frame and the third frame extend into the U-shaped frame to form the first mounting surface (10) and the third mounting surface (12). The first cutting line and the second cutting line (2) are both located between the first mounting surface (10) and the third mounting surface (12). S2. Cut another part to be processed (5) along the third cutting line (3) and the fourth cutting line (4) symmetrical with respect to its axis to form four cutting parts. The cutting parts between the third cutting line (3) and the fourth cutting line (4) are used as the third part to be processed (8) and the fourth part to be processed (9). The inner sides of the second frame and the fourth frame extend into the inside of the U-shaped frame to form the second mounting surface (11) and the fourth mounting surface (13). The third cutting line (3) is located on the side of the first cutting line (1) away from the axis, and the fourth cutting line is located on the side of the second cutting line (2) away from the axis. S3. Fix the first workpiece (6), the second workpiece (7), the third workpiece (8) and the fourth workpiece (9) by the first center support (14), and grind and polish the cutting surface, the first mounting surface (10), the third mounting surface (12), the second mounting surface (11) and the fourth mounting surface (13) of the first workpiece (6) and the second workpiece (7) so that the first workpiece (6) and the second workpiece (7) meet the first preset processing parameters; S4. Fix the third workpiece (8) and the fourth workpiece (9) by means of the second center support (16), and grind and polish the cutting surfaces of the third workpiece (8) and the fourth workpiece (9) so that the corresponding third workpiece (8) and the fourth workpiece (9) meet the second preset processing parameters. S5. Apply a light adhesive to the corresponding cut surfaces of the first workpiece (6), the second workpiece (7), the third workpiece (8), and the fourth workpiece (9) using the light adhesive assembly (18). The method further includes: cutting the initial blank (22) along a plane parallel to its outer surface and containing the axis to form two workpieces (23), and performing optical and mechanical processing on the two workpieces (23) to obtain two identical workpieces (5) that both meet the third preset processing parameters.

2. The method for processing an electrode frame according to claim 1, characterized in that, The first center support (14) is a regular hexahedron, and the first center support (14) has four fixed surfaces perpendicular to the first grinding and polishing surface (15); correspondingly, fixing the first workpiece (6), the second workpiece (7), the third workpiece (8), and the fourth workpiece (9) through the first center support (14) includes: The first workpiece (6) and the second workpiece (7) are fixed to two of the fixed surfaces, and the third workpiece (8) and the fourth workpiece (9) are fixed to the other two fixed surfaces, so that the first grinding and polishing surface (15) is on the same plane as the cutting surface, the first mounting surface (10), the second mounting surface (11), the third mounting surface (12), and the fourth mounting surface (13).

3. The method for processing an electrode frame according to claim 1, characterized in that, The second center support (16) is a regular hexahedron, and the second center support (16) has four fixed surfaces that are perpendicular to the second grinding and polishing surface (17). The process of fixing the third workpiece (8) and the fourth workpiece (9) by means of the second center support (16) includes: The third workpiece (8) and the fourth workpiece (9) are fixed relative to each other on the two fixed surfaces so that the second grinding and polishing surface (17) and the cutting surface are on the same plane.

4. The method for processing an electrode frame according to claim 1, characterized in that, The photoresist assembly (18) includes a first positioning surface (19), a second positioning surface (20), and a third positioning surface (21) that are perpendicular to each other; the photoresist assembly (18) is used to apply photoresist to the corresponding cut surfaces of the first workpiece (6), the second workpiece (7), the third workpiece (8), and the fourth workpiece (9) on the corresponding cut surfaces. The first workpiece (6) and the fourth workpiece (9) are coated with a light adhesive through the first positioning surface (19), the second positioning surface (20), and the third positioning surface (21). The second workpiece (7) and the fourth workpiece (9) are coated with a light adhesive through the first positioning surface (19), the second positioning surface (20), and the third positioning surface (21); The first positioning surface (19), the second positioning surface (20), and the third positioning surface (21) are used to apply a light adhesive to the corresponding cutting surfaces of the first workpiece to be processed (6), the second workpiece to be processed (7), and the third workpiece to be processed (8).

5. A method for processing an electrode frame according to claim 4, characterized in that, The method of using the first positioning surface (19), the second positioning surface (20), and the third positioning surface (21) to connect the corresponding cutting surfaces of the first workpiece to be processed (6) and the fourth workpiece to be processed (9) includes: The first workpiece to be processed (6) abuts against the first positioning surface (19), the second positioning surface (20), and the third positioning surface (21); the fourth workpiece to be processed (9) abuts against the first positioning surface (19) and the third positioning surface (21); One of the cut surfaces of the first workpiece (6) is brought into contact with one of the cut surfaces of the fourth workpiece (9) and coated with a light adhesive.

6. A method for processing an electrode frame according to claim 5, characterized in that, The method of using the first positioning surface (19), the second positioning surface (20), and the third positioning surface (21) to connect the corresponding cutting surfaces of the second workpiece (7) and the fourth workpiece (9) includes: The second workpiece (7) is brought into contact with the first positioning surface (19) and the third positioning surface (21); One of the cut surfaces of the second workpiece (7) is brought into contact with the other cut surface of the fourth workpiece (9) and then coated with adhesive.

7. A method for processing an electrode frame according to claim 6, characterized in that, The method of using the first positioning surface (19), the second positioning surface (20), and the third positioning surface (21) to connect the corresponding cutting surfaces of the second workpiece (7) and the third workpiece (8) includes: The third workpiece (8) is brought into contact with the first positioning surface (19) and the third positioning surface (21) respectively; The second workpiece (7) is brought into contact with the second positioning surface (20) and the third positioning surface (21) respectively; One cut surface of the third workpiece (8) and another cut surface of the second workpiece (7) are brought into contact and coated with adhesive, and the other cut surface of the third workpiece (8) is brought into contact with the other cut surface of the first workpiece (6) and coated with adhesive.

8. A method for processing an electrode frame according to any one of claims 1-7, characterized in that, The first preset processing parameters, the second preset processing parameters, and the third preset processing parameters include surface shape, surface defects, dimensions, and parallelism.

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