Intelligent cabin elastic piece machining mold and machining method

Abstract

The invention discloses an intelligent cabin elastic piece machining die and method, and relates to the technical field of part machining dies, the intelligent cabin elastic piece machining die comprises a base, a cover plate slidably arranged on the base in the direction perpendicular to the base, a female die base arranged at the top end of the base, and a male die base arranged at the bottom end of the cover plate; the blanking dies are arranged between the female die base and the male die base and used for punching the corresponding positions of the plate correspondingly, and the first bending dies are arranged between the female die base and the male die base and used for pre-bending the corresponding positions of the plate correspondingly. The second bending dies are arranged between the female die base and the male die base and used for bending the pre-bending positions of the plates to meet the forming requirement. The blanking dies, the first bending dies and the second bending dies are arranged in the same straight line direction. The production and processing efficiency of the intelligent cabin elastic sheet can be effectively improved, and the production quality of parts and the consistency of products are ensured.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of part processing molds, in particular to an intelligent cockpit spring processing mold and a processing method. BACKGROUND

[0002] The intelligent cockpit spring is an important anti-shake element of a projector and plays a key role in the stable operation of the projector. With the continuous development of projector technology, the quality and performance requirements of the intelligent cockpit spring are increasingly improved, and the surface and dimensional accuracy, rationality of the structure of the part, and the like directly affect the anti-shake effect and overall performance of the projector. This makes the processing technology of the spring an important support for the development of the projector industry, and is of great significance for improving the quality and market competitiveness of the projector.

[0003] For example, Figure 1 The existing intelligent cockpit spring has high surface and dimensional accuracy requirements and a complex structure; therefore, in the field of intelligent cockpit spring processing, the industry usually adopts multi-station precision progressive die production. This way is to cut, bend, and the like for each position of the part, so as to process and form the part.

[0004] Although this multi-station precision progressive die production method can meet the processing needs of the complex structure of the part to some extent, its processing efficiency is slow, and it is difficult to meet the market requirements for production efficiency in large-scale production. Moreover, there are processing errors in each position of the part during the processing process, for example, the cutting size may be too large or too small, which will directly affect the dimensional accuracy of the spring. At the same time, due to the springback characteristics of the part material itself, the angle of the bent part will deviate, making it difficult to ensure the consistency of the product, and thus affecting the performance of the spring as an anti-shake element. SUMMARY

[0005] In view of the problems in the prior art, the application provides an intelligent cockpit spring processing mold and a processing method.

[0006] In a first aspect, the application provides an intelligent cockpit spring processing mold, which adopts the following technical solution: a base, a cover plate slidingly arranged on the base in a direction perpendicular to the base, a concave die seat arranged at the top end of the base, a convex die seat arranged at the bottom end of the cover plate, a plurality of groups of piercing dies arranged between the concave die seat and the convex die seat and respectively used for piercing the corresponding positions of the plate, a plurality of groups of first bending dies arranged between the concave die seat and the convex die seat and respectively used for pre-bending the corresponding positions of the plate, A plurality of sets of second bending dies are arranged between the die holder and the punch holder and are used to bend the plate to the second bending position required by the forming. Each of the blanking die, the first bending die and the second bending die is arranged along the same linear direction.

[0007] Optionally, a plurality of outer guide columns are fixedly arranged on the base, a plurality of guide sleeves are arranged on the cover plate, the guide sleeves correspond to the outer guide columns one by one, the outer guide columns slide through the corresponding guide sleeves, and a plurality of rolling balls are arranged on the side wall of the outer guide column and are in rolling connection with the inner side wall of the guide sleeve.

[0008] Optionally, the blanking die comprises a blanking punch arranged on the punch holder, a working part of the blanking punch is provided with a V-shaped blade, and the die holder is provided with a blanking port corresponding to the position of the V-shaped blade of the blanking punch.

[0009] Optionally, the blanking punch is provided with a blowing hole connected with a gas pump and used for blowing off the waste residues at the V-shaped blade.

[0010] Optionally, the first bending die comprises a first bending female die arranged on the die holder and a first bending male die arranged on the punch holder in correspondence, the first bending male die is provided with a first bending part used for bending the plate at the corresponding position, the first bending female die is provided with a first bending receiving part used for receiving the bending part of the plate, and the first bending part and the first bending receiving part are both arranged obliquely.

[0011] Optionally, the first bending male die is arranged on the punch holder in a sliding manner along the vertical direction of the punch holder, an adjusting screw is arranged on the punch holder in a rotating manner, the adjusting screw is in threaded connection with the first bending male die, and the adjusting screw is used for adjusting the position of the first bending male die in the vertical direction.

[0012] Optionally, the second bending die comprises a second bending female die arranged on the die holder and a second bending male die arranged on the punch holder in correspondence, the second bending male die is provided with a second bending part used for bending the plate at the corresponding position, the second bending female die is provided with a second bending receiving part used for receiving the bending part of the plate, and the second bending part and the second bending receiving part are both arranged in an arc shape.

[0013] Optionally, when the plate is bent at the corresponding position, the minimum distance between the second bending part and the second bending receiving part is less than the thickness of the processed plate.

[0014] Optionally, the punch seat is provided with a stripper plate sliding in the direction perpendicular to the punch seat, the stripper plate is slidingly sleeved on the blanking punch, the first bending punch and the second bending punch respectively, the punch seat is provided with an elastic member for enabling the stripper plate to have a movement trend away from the punch seat, and the stripper plate is provided with an insert for pressing the plate.

[0015] In a second aspect, the application provides a processing method of an intelligent cockpit shell processing die, which adopts the following technical scheme: A processing method of an intelligent cockpit shell processing die, comprising the following steps: S1, conveying the plate for part processing between the punch seat and the die seat, and the plate sequentially passes through each group of blanking dies, first bending dies and second bending dies; S2, with the movement of the plate, each group of blanking dies punches holes in the corresponding positions on the plate, each group of first bending dies pre-bends the corresponding positions on the plate to a certain angle, and each group of second bending dies further bends the pre-bent positions on the plate to a forming angle; S3, after each position of the part on the plate is processed and formed, the part is cut from the plate, and the production and processing of the part are completed.

[0016] In summary, the application has at least one of the following beneficial technical effects: 1. The application can effectively improve the production and processing efficiency of the intelligent cockpit shell, and ensure the production quality and consistency of the product. Specifically, by arranging each blanking die, first bending die and second bending die along the same straight line direction, the punching, pre-bending and bending forming processes of each die on the corresponding position of the plate are completed during the continuous feeding of the plate, and each process is performed consecutively, reducing the transfer and waiting time of the part at different processing stages, effectively improving the production and processing efficiency of the intelligent cockpit shell. At the same time, when each processing position of the workpiece is bent, it is first pre-bent to a certain angle by the first bending die, and then the pre-bent position is further bent to a forming angle by the second bending die. This step-by-step forming method can effectively ensure the consistency of the processing process and parameters of each part, avoid the processing errors that easily occur in the traditional processing method, and ensure the production quality and consistency of the product.

[0017] 2. The application cooperates the outer guide column with the guide sleeve, and the ball on the side wall of the outer guide column is in rolling connection with the inner side wall of the guide sleeve, so that the cover plate can stably slide in the direction perpendicular to the base, improving the guiding accuracy and assembly accuracy of the die, ensuring the stability of the die during operation, and further ensuring the processing quality of the product.

[0018] 3. The V-shaped blade of the punch die can reduce the punching force and prevent the rebound of the waste material; the blanking port on the die holder corresponding to the position of the V-shaped blade can make the waste material fall smoothly, cooperate with the punch die to complete the punching operation on the corresponding position of the plate, and ensure the smooth processing.

[0019] 4. The gas blowing hole is arranged on the punch die and connected with the air pump, so that the waste residue at the V-shaped blade can be blown off, avoiding the waste material floating up to press the product and damage the mold after punching small holes and fine grooves, ensuring the product quality and normal operation of the mold.

[0020] 5. The first bending punch can slide along the vertical direction of the punch holder, and the vertical position thereof can be adjusted by cooperating with the adjusting screw, so that the angle of pre-bending of the plate at the corresponding position can be adjusted according to the actual processing needs, and the purpose of finally controlling the bending angle is achieved.

[0021] 6. The minimum distance between the second bending part and the second bending receiving part of the intelligent cockpit shell processing mold is set to be less than the thickness of the processed plate, so that when the plate is bent, the product can be forced to produce a certain amount of plastic deformation when forming an R angle, which can avoid material rebound and improve the stability of the formed angle, thereby ensuring the product quality and consistency. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 is a structural schematic diagram for expressing an intelligent cockpit shell; Figure 2 is a structural front view of the embodiment of the application; Figure 3 is a structural top view of the base according to the embodiment of the application; Figure 4 is a structural schematic diagram for expressing the intelligent cockpit shell forming process according to the embodiment of the application; Figure 5 is a structural schematic diagram for expressing the outer guide column according to the embodiment of the application; Figure 6 is a structural schematic diagram for expressing the punching die according to the embodiment of the application; Figure 7 is a structural schematic diagram for expressing the punch die according to the embodiment of the application; Figure 8 is a structural schematic diagram for expressing the first bending die according to the embodiment of the application; Figure 9 is a structural schematic diagram for expressing the second bending die according to the embodiment of the application.

[0023] Explanation of reference signs: 100, plate; 1, base; 11, feeding side; 12, discharging side; 13, lower backing plate; 14, guide plate; 15, outer guide column; 151, ball; 2, cover plate; 21, upper support; 22, upper backing plate; 23, guide sleeve; 3, concave die seat; 31, discharging port; 4, convex die seat; 41, adjusting screw; 42, discharging plate; 421, insert; 43, elastic member; 5, blanking die; 51, blanking punch; 511, working part; 512, V-shaped blade edge; 513, reinforcing structure; 514, air blowing hole; 6, first bending die; 61, first bending concave die; 611, first bending receiving part; 62, first bending convex die; 621, first bending receiving part; 7, second bending die; 71, second bending concave die; 711, second bending receiving part; 72, second bending convex die; 721, second bending receiving part. DETAILED DESCRIPTION

[0024] The technical solutions in the embodiments of the present application will be described below with reference to the accompanying drawings. Figure 2 - the drawings Figure 9 The technical solutions in the embodiments of the present application will be described below with reference to the accompanying drawings.

[0025] The present application discloses a kind of intelligent seat cabin spring sheet processing mould and processing method, mainly using the following scheme: The present application discloses a kind of intelligent seat cabin spring sheet processing mould. Refer to Figure 2 And Figure 3, including base 1, cover plate 2, concave die holder 3, convex die holder 4. Among them, the base 1 is fixed on the machine tool, and the two sides of the base 1 are respectively the feeding side 11 and the discharging side 12, the cover plate 2 is arranged on the base 1 along the vertical direction of the base 1, and the cover plate 2 can be driven by the hydraulic machine to reciprocate along the vertical direction. The top end of the base 1 is fixedly provided with a lower pad 13, the concave die holder 3 is fixedly arranged at the top end of the lower pad 13, the bottom end of the cover plate 2 is fixedly provided with an upper support 21, the bottom end of the upper support 21 is fixedly provided with an upper pad 22, the convex die holder 4 is fixedly arranged at the bottom end of the upper pad 22, and a plurality of blanking dies 5, first bending dies 6 and second bending dies 7 are fixedly arranged between the concave die holder 3 and the convex die holder 4; each blanking die 5, first bending die 6 and second bending die 7 is arranged along the same linear direction. Such layout makes the plate 100 pass through each die in turn for processing, improving the continuity and efficiency of processing.

[0026] Referring to Figure 3 and Figure 4 , specifically, the plate 100 is automatically conveyed by unwinding equipment and winding equipment, so that the plate 100 moves from the feeding side 11 of the base 1 to the discharging side 12, and passes through between the concave die holder 3 and the convex die holder 4, and sequentially passes through each group of blanking dies 5, first bending dies 6 and second bending dies 7, to complete the forming processing of each position of the part, and the processed part is cut from the plate 100 at the discharging side 12 of the base 1, to complete the production and processing of the part. Further, a guide plate 14 is fixedly arranged on the feeding side 11 of the base 1, for guiding the plate 100 to enter between the concave die holder 3 and the convex die holder 4, and ensuring the position accuracy of the plate 100. In addition, for the forming processing of the same position of the plate 100, the blanking dies 5, the first bending dies 6 and the second bending dies 7 are arranged in turn, so that the part is bent immediately after one side is punched during the forming process.

[0027] Referring to Figure 5 , specifically, a plurality of outer guide columns 15 are fixedly arranged on the base 1, which can adopt a cylindrical shape, and the material is selected from high-strength alloy steel to ensure sufficient strength and stability. A plurality of guide sleeves 23 are arranged on the cover plate 2, the guide sleeves 23 correspond one-to-one to the outer guide columns 15, and the outer guide columns 15 are slidably arranged in the corresponding guide sleeves 23. In order to reduce the friction between the outer guide columns 15 and the guide sleeves 23, a plurality of rolling balls 151 are rotatably arranged on the side wall of the outer guide column 15, which can be made of stainless steel and have good wear resistance. The rolling balls 151 are in rolling connection with the inner side wall of the guide sleeve 23, which can make the cover plate 2 stably slide along the vertical direction of the base 1, improve the guiding accuracy and assembly accuracy of the die, ensure the stability of the die during work, and further ensure the processing quality of the product. In addition, in addition to the rolling ball 151 guiding mode, a linear guide pair can also be used to realize the sliding guidance between the cover plate 2 and the base 1.

[0028] Referring to Figure 6 and Figure 7 , the blanking die 5 is used for punching the plate 100 at the corresponding position. Specifically, the blanking die 5 includes a blanking punch 51 arranged on the punch holder 4, and a working portion 511 of the blanking punch 51 is provided with a V-shaped blade edge 512. The design of the V-shaped blade edge 512 can reduce the blanking force and improve the accuracy of blanking. The die holder 3 is provided with a blanking port 31 corresponding to the position of the V-shaped blade edge of the blanking punch 51. The blanking port 31 is matched with the corresponding blanking punch 51, and the blanking port 31 penetrates the lower die plate 13 and the base 1, so as to facilitate the discharge of the waste after blanking. Since the workpiece is distributed with various grooves and hole structures of different shapes and hole diameters, the shape and size of the blanking punch 51 are designed in multiple ways and are matched with the shape and size of the groove and hole structure to be punched. The material of the blanking punch 51 can be selected from imported KR887 hard alloy. The material has high hardness, high wear resistance and good toughness, which can ensure the service life of the die. In addition to KR887 hard alloy, other high-performance die steel materials can also be selected.

[0029] Referring to Figure 6 Further, for some smaller grooves and hole structures on the workpiece, the structure and size of the corresponding blanking punch 51 are also relatively small. For the relatively small blanking punch 51, the length of the blanking punch 51 is shortened to 14 mm, and a reinforcing structure 513 is arranged on the blanking punch 51. The reinforcing structure 513 is integrally formed on the blanking punch 51, and the width of the reinforcing structure 513 is greater than the width of the working portion 511. In addition, the blanking punch 51 is detachably arranged on the punch holder 4 by means of bolts or buckles, so as to facilitate the maintenance or replacement of the blanking punch 51.

[0030] Referring to Figure 6 and Figure 7 Further, for some relatively large blanking punch 51, the blanking punch 51 is provided with a blowing hole 514. The blowing hole 514 can be connected with an air pump. The airflow generated by the air pump blows off the waste residues at the V-shaped blade edge 512, avoiding the waste residues from pressing the product and damaging the die when punching small holes and fine grooves, thereby ensuring the product quality and normal operation of the die. For some relatively small blanking punch 51, in order to avoid affecting the structural strength of the blanking die 5, the blowing hole 514 is cancelled, and a negative pressure adsorption device is arranged on the processing die to suck away the waste residues on the surface of the relatively small blanking punch 51.

[0031] Referring to Figure 8, the first bending die 6 is used for pre-bending the corresponding position of the plate 100. Specifically, the first bending die 6 includes a first bending female die 61 arranged on the die holder 3, and a first bending male die 62 arranged on the punch holder 4 correspondingly. The first bending male die 62 is provided with a first bending part 621 for bending the corresponding position of the plate 100, and the first bending female die 61 is provided with a first bending receiving part 611 for receiving the bending part of the plate 100. The first bending part 621 and the first bending receiving part 611 are both arranged obliquely, so that the corresponding position of the plate 100 can be pre-bent at a certain angle. The oblique angle is generally 45°. This 45° pre-bending method facilitates subsequent adjustment of the bending angle and ensures that the bending angle meets the customer's requirements. In addition, the first bending female die 61 is detachably arranged on the die holder 3 by means of bolts or buckles, and the first bending male die 62 is also detachably arranged on the punch holder 4 by means of bolts or buckles, which facilitates maintenance or replacement of the first bending female die 61 and the first bending male die 62.

[0032] Referring to Figure 8 Further, the first bending male die 62 is arranged on the punch holder 4 in a sliding manner along the vertical direction of the punch holder 4. The punch holder 4 is rotatably provided with an adjusting screw 41. The adjusting screw 41 is threadedly connected with the first bending male die 62. By rotating the adjusting screw 41, the position of the first bending male die 62 in the vertical direction can be adjusted. The angle of pre-bending the corresponding position of the plate 100 can be adjusted according to actual processing needs, so as to achieve the purpose of finally controlling the bending angle. The material of the first bending male die 62 and the first bending female die 61 can be S790 high-quality powder metallurgy material. This material has good wear resistance and fatigue resistance. In addition to S790 material, other high-quality powder metallurgy materials such as S290 can also be selected.

[0033] Referring to Figure 9 The second bending die 7 is used for further bending the pre-bent position of the plate 100 to the angle required by the forming. Specifically, the second bending die 7 includes a second bending female die 71 arranged on the die holder 3, and a second bending male die 72 arranged on the punch holder 4 correspondingly. The second bending male die 72 is provided with a second bending part 721 for bending the corresponding position of the plate 100, and the second bending female die 71 is provided with a second bending receiving part 711 for receiving the bending part of the plate 100. The second bending part 721 and the second bending receiving part 711 are both arranged in an arc shape, so that the pre-bent position of the plate 100 can be further bent to the angle required by the forming. In addition, the second bending female die 71 is detachably arranged on the die holder 3 by means of bolts or buckles, and the second bending male die 72 is also detachably arranged on the punch holder 4 by means of bolts or buckles, which facilitates maintenance or replacement of the second bending female die 71 and the second bending male die 72.

[0034] Referring to Figure 9In addition, when the plate 100 is bent at the corresponding position, the minimum distance between the second bending part 721 and the second bending support part 711 is less than the thickness of the processed plate 100, and the interference structure can force the product to produce a quantitative plastic deformation when being bent and formed, avoid material springback, improve the stability of the formed angle, thereby ensuring the product quality and consistency. The material of the second bending punch 72 and the second bending die 71 can also be selected from S790 or S290 high-quality powder metallurgy materials.

[0035] With reference to Figure 8 and Figure 9 , the lower part of the punch holder 4 is provided with a stripper plate 42 which slides in the vertical direction of the punch holder 4, and a plurality of inner guide columns are fixedly arranged on the punch holder 4, and the stripper plate 42 is respectively sleeved on each inner guide column (not shown in the figure). The punch holder 4 is provided with an elastic member 43 for enabling the stripper plate 42 to have a movement trend away from the punch holder 4, and the elastic member 43 can be a spring, and the elastic coefficient of the spring is selected according to actual needs. The stripper plate 42 is respectively sleeved on the first bending punch 62 and the second bending punch 72, the clearance between the blanking punch 51, the first bending punch 62 and the second bending punch 72 and the stripper plate 42 is controlled to be less than or equal to 0.005mm, and the stripper plate 42 is provided with an insert 421 which can be made of hard alloy material, so as to better fix the plate 100 during stamping, prevent the plate 100 from moving or deviating, and ensure the stamping precision and product quality; at the same time, after stamping is completed, the stripper plate 42 can smoothly unload the formed part from the punch, thereby improving the processing efficiency.

[0036] The implementation principle of the intelligent cockpit shell processing die is as follows: the intelligent cockpit shell processing die realizes efficient processing of the intelligent cockpit shell through reasonable layout and process improvement, and ensures the part production quality and product consistency. Specifically, the blanking die 5, the first bending die 6 and the second bending die 7 are arranged along the same straight line direction, and the plate 100 is continuously fed, and each die respectively completes the punching, pre-bending and bending forming processes on the corresponding position of the plate 100, and each process is continuous, which reduces the transfer and waiting time of the parts in different processing stages, effectively improves the production and processing efficiency of the intelligent cockpit shell, and reduces the production cost.

[0037] Meanwhile, each processing position of the workpiece is pre-bent by the first bending die 6 by a certain angle, and then the pre-bent position is further bent to a forming angle by the second bending die 7. Such a step-by-step forming mode can effectively ensure that the processing process and parameters of each part are consistent, avoid the processing errors that are prone to occur in each position in the traditional processing mode, and ensure the production quality of the parts and the consistency of the products, thereby improving the production efficiency while effectively ensuring the product quality, and having good practicability and market competitiveness.

[0038] The embodiment of the application further discloses a processing method of the intelligent cockpit shell processing die. S1, the plate 100 for part processing is automatically conveyed by unwinding equipment and winding equipment, so that the plate 100 moves from the feeding side 11 of the base 1 to the discharging side 12, and passes through between the concave die seat 3 and the convex die seat 4, and sequentially passes through each group of blanking dies 5, the first bending die 6 and the second bending die 7.

[0039] S2, with the movement of the plate 100, each group of blanking dies 5 punches holes in the corresponding positions on the plate 100, each group of first bending dies 6 pre-bends the corresponding positions on the plate 100 to a certain angle, generally 45°, and each group of second bending dies 7 further bends the corresponding pre-bent positions on the plate 100 to a forming angle, that is, 90°+0 / -1°. In this process, the working order and precision of each die are ensured, and the parameters of the blanking dies 5, the first bending dies 6 and the second bending dies 7 are adjusted to ensure that the shell meets the quality requirements.

[0040] S3, after each position of the part placed on the plate 100 is processed and formed, the part is cut from the plate 100 by the blanking die 5 on the discharging side 12 of the base 1, and the production and processing of the part are completed, and the excess plate 100 is wound by the winding equipment.

[0041] The above are preferred embodiments of the application, and do not limit the protection scope of the application, so that: equivalent changes made according to the structure, shape, principle of the application should be covered within the protection scope of the application.

Claims

1. An intelligent cockpit bullet machining die, characterized in that, The utility model relates to a punch -die -bending machine, including: Base (1), Cover plate (2) is arranged on base (1) along the direction of vertical base (1) slidingly, Concave die holder (3) is arranged at the top of base (1), Convex die holder (4) is arranged at the bottom of cover plate (2), A plurality of sets of blanking die (5) are arranged between concave die holder (3) and convex die holder (4) and are respectively used for punching the corresponding position of plate (100), A plurality of sets of first bending die (6) are arranged between concave die holder (3) and convex die holder (4) and are respectively used for pre-bending the corresponding position of plate (100), A plurality of sets of second bending die (7) are arranged between concave die holder (3) and convex die holder (4) and are respectively used for bending the pre-bending position of plate (100) to the forming requirement, Each of blanking die (5), first bending die (6) and second bending die (7) is arranged along the same linear direction. 2.The intelligent cabin sheet processing mold according to claim 1, wherein: A plurality of outer guide columns (15) are fixedly arranged on base (1), a plurality of guide sleeves (23) are arranged on cover plate (2), the guide sleeves (23) correspond to the outer guide columns (15) one by one, the outer guide columns (15) are slidingly arranged in the corresponding guide sleeves (23), a plurality of ball bearings (151) are rotatably arranged on the side wall of outer guide column (15), and the ball bearings (151) are rotatably connected with the inner side wall of guide sleeve (23). 3.The intelligent cabin sheet processing mold of claim 1, wherein: Blanking punch (51) is arranged on convex die holder (4), the working part (511) on blanking punch (51) is provided with V-shaped blade (512), and blanking outlet (31) corresponding to the position of V-shaped blade on blanking punch (51) is arranged on concave die holder (3).

4. The intelligent cabin shell machining die of claim 3, wherein: Blowing hole (514) is arranged on blanking punch (51), the blowing hole (514) is connected with the air pump and is used for blowing off the waste residues at V-shaped blade (512). 5.The intelligent cabin sheet processing mold according to claim 3, characterized in that: First bending concave die (61) is arranged on concave die holder (3), first bending convex die (62) is correspondingly arranged on convex die holder (4), the first bending part (621) for bending the corresponding position of plate (100) is arranged on first bending convex die (62), the first bending concave die (61) is provided with first bending receiving part (611) for receiving the bending part of plate (100), and the first bending part (621) and the first bending receiving part (611) are both arranged obliquely. 6.The intelligent cabin sheet processing mold according to claim 5, wherein: First bending convex die (62) is slidingly arranged on convex die holder (4) along the direction perpendicular to convex die holder (4), adjusting screw (41) is rotatably arranged on convex die holder (4), adjusting screw (41) is threadedly connected with first bending convex die (62) and is used for adjusting the position of first bending convex die (62) in the vertical direction. 7.The intelligent cabin sheet processing mold according to claim 5, wherein: The second bending die (7) comprises a second bending female die (71) arranged on the female die seat (3) and a second bending male die (72) arranged on the male die seat (4) correspondingly, the second bending male die (72) is provided with a second bending part (721) for bending the plate (100) at the corresponding position, the second bending female die (71) is provided with a second bending receiving part (711) for receiving the bending part of the plate (100), and the second bending part (721) and the second bending receiving part (711) are both arranged in an arc shape. 8.The intelligent cabin sheet processing mold according to claim 7, characterized in that: When the plate (100) is bent at the corresponding position, the minimum distance between the second bending part (721) and the second bending receiving part (711) is less than the thickness of the processed plate (100). 9.The intelligent cabin sheet processing mold according to claim 7, wherein: The male die seat (4) is provided with a stripper plate (42) sliding in the direction perpendicular to the male die seat (4), the stripper plate (42) is slidingly sleeved on the blanking male die (51), the first bending male die (62) and the second bending male die (72) respectively, the male die seat (4) is provided with an elastic member (43) for making the stripper plate (42) have a movement trend away from the male die seat (4), and the stripper plate (42) is provided with an insert (421) for pressing the plate (100).

10. A processing method based on the intelligent cabin shell piece processing die according to any one of claims 1-9, characterized in that, The method comprises the following steps: S1, conveying the plate (100) for part processing between the female die seat (3) and the male die seat (4), and the plate (100) sequentially passes through each group of blanking dies (5), first bending dies (6) and second bending dies (7); S2, with the movement of the plate (100), each group of blanking dies (5) punches holes at the corresponding positions on the plate (100) respectively, each group of first bending dies (6) pre-bends the corresponding positions on the plate (100) to a certain angle, and each group of second bending dies (7) further bends the pre-bent positions on the plate (100) to a forming angle; S3, after each position of the part on the plate (100) is processed and formed, the part is cut from the plate (100), and the production and processing of the part are completed.

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