Milling structure

Abstract

The utility model relates to a material milling structure, and belongs to the technical field of sawing machines. The first material milling assembly is movably arranged on the support assembly, the first material milling assembly is arranged in the height direction of the support assembly, and the first material milling assembly can move relative to the support assembly; the second material milling assembly is movably arranged on the first material milling assembly, the second material milling assembly is arranged in the length direction of the first material milling assembly, and the second material milling assembly can move relative to the support assembly. The moving direction of the second milling assembly relative to the first milling assembly is staggered with the moving direction of the first milling assembly relative to the support assembly, and at least part of the second milling assembly can rotate relative to the first milling assembly. According to the material milling structure, at least part of the second material milling assembly can rotate relative to the first material milling assembly, the angle of the second material milling assembly for machining the profile can be adjusted, and therefore more complex machining requirements can be met.

Description

Technical Field

[0001] The utility model relates to the technical field of sawing machines, in particular to a profile milling structure. Background Art

[0002] A profile milling structure is a common mechanical device for processing specific shapes, sizes or surfaces of profiles. However, the existing profile milling structure cannot rotate, so the profile milling structure does not have the function of adjusting the processing angle. Moreover, when the profile milling structure processes profiles, it needs to manually adjust or make limited mechanical adjustments to change the position of the milling cutter. The profile milling structure has low processing efficiency for profiles, and the processing accuracy and flexibility are not high. Summary of the Utility Model

[0003] Based on this, in view of the problem that the profile milling structure does not have the function of adjusting the processing angle, it is necessary to provide a profile milling structure.

[0004] A profile milling structure includes: a bracket assembly; a first profile milling assembly, the first profile milling assembly is movably arranged on the bracket assembly, the first profile milling assembly is arranged along the height direction of the bracket assembly, and the first profile milling assembly can move relative to the bracket assembly; a second profile milling assembly, the second profile milling assembly is movably arranged on the first profile milling assembly, the second profile milling assembly is arranged along the length direction of the first profile milling assembly, the second profile milling assembly can move relative to the bracket assembly, the direction in which the second profile milling assembly moves relative to the first profile milling assembly intersects with the direction in which the first profile milling assembly moves relative to the bracket assembly, and at least part of the second profile milling assembly can rotate relative to the first profile milling assembly.

[0005] The present application discloses a profile milling structure. By arranging the first profile milling assembly along the height direction of the bracket assembly, a vertical adjustment space is provided for the first profile milling assembly. By movably arranging the second profile milling assembly on the first profile milling assembly, the second profile milling assembly can move up and down and back and forth, increasing the processing accuracy and flexibility of the profile milling structure. By enabling at least part of the second profile milling assembly to rotate relative to the first profile milling assembly, the angle of processing profiles by the second profile milling assembly can be adjusted, further enhancing the freedom of its operation and enabling it to adapt to more complex processing requirements. The profile milling structure of the present application can more precisely control the position, depth and angle of milling through the independent movement and rotation of the first profile milling assembly and the second profile milling assembly, so as to perform high-precision milling processing.

[0006] In one embodiment, the second milling component includes a moving component and a movable milling component. The moving component is movably arranged on the first milling component, and the moving component can move relative to the first milling component. The movable milling component is movably arranged on the moving component, and the movable milling component can rotate relative to the moving component. By moving the second milling component along the length direction of the first milling component, the flexibility of the milling operation is increased. By enabling the movable milling component to rotate relative to the moving component, an additional degree of rotational freedom is provided, making the milling of the movable milling component more flexible and capable of adapting to more complex machining paths and shapes. This design allows the second milling component to complete various milling tasks without replacing the milling cutter, resulting in high processing efficiency.

[0007] In one embodiment, the movable milling component includes a rotating seat body, a second milling motor component, and a driving member. The rotating seat body is movably arranged on the moving component, the second milling motor component is arranged on the rotating seat body, the driving member is in transmission connection with the rotating seat body, and the driving member can drive the rotating seat body to rotate relative to the moving component. By directly mounting the second milling motor component on the rotating seat body, the second milling motor component moves along with the movement of the rotating seat body, ensuring the stability and efficiency of the power transmission of the second milling motor component. By the transmission connection between the driving member and the rotating seat body, the design of the transmission system is simplified, the mechanical complexity is reduced, and at the same time, the maintenance cost and failure rate are also reduced.

[0008] In one embodiment, the driving member includes a support block and a rotating cylinder. The support block is arranged on the rotating seat body, the output end of the rotating cylinder is connected to the support block, and the rotating cylinder can drive the rotating seat body to rotate relative to the moving component. By providing the support block as the installation base of the rotating cylinder, the effect of the rotating cylinder driving the rotating seat body is better. By providing the rotating cylinder, a fast response time can be achieved, which is more convenient for operations that require quickly adjusting the direction of the second milling motor component, thereby improving the processing efficiency.

[0009] In one embodiment, the second milling motor component includes a motor body and a milling cutter. The motor body is arranged on the rotating seat body, the milling cutter is arranged on the motor body and the milling cutter is located at the output end of the motor body. By arranging the milling cutter on the motor body, the entire second milling motor component is more compact, reducing additional transmission components. This not only saves space but also reduces the overall weight. Moreover, the motor body directly drives the milling cutter to rotate, reducing the loss during the energy conversion process and improving the energy efficiency.

[0010] In one embodiment, the moving component includes a second movable plate component, a connecting member, and a driving cylinder. The second movable plate component and the driving cylinder are both disposed on the first milling component. The connecting member is respectively connected to the output end of the driving cylinder and the second movable plate component. The driving cylinder can drive the second movable plate component to move relative to the first milling component. The setting of the connecting member enables the power transmission provided by the cylinder to be relatively stable, which helps to maintain the stability of the milling cutter during the machining process, thereby improving the machining accuracy. By means of the driving cylinder, the second movable plate component can be pushed to move relative to the first milling component, so that the second movable plate component can adjust its position as needed to adapt to different machining requirements.

[0011] In one embodiment, the connecting member includes a support plate and a connecting plate. The support plate is disposed on the second movable plate component, and the connecting plate is disposed on the support plate. The connecting plate is used to connect to the output end of the driving cylinder. The setting of the support plate and the connecting plate simplifies the connection between the driving cylinder and the second movable plate component, making the assembly and disassembly more convenient and fast, which helps to improve the efficiency of production and maintenance. This design helps to provide sufficient strength and stiffness and reduce the vibration generated during the machining process.

[0012] In one embodiment, the second movable plate component includes a second movable block and a second movable plate body. The number of the second movable blocks is multiple. The multiple second movable blocks are movably disposed on the first milling component. The second movable blocks can slide relative to the first milling component. The second movable plate body is disposed on the second movable blocks. The setting of the second movable blocks reduces the friction and wear during use and extends the service life of the product. Moreover, the setting of the second movable blocks provides stable support for the second movable plate body, ensuring the stability of the second movable plate body during the machining process.

[0013] In one embodiment, the first milling component includes a first movable plate component, a power source component, and a first milling motor component. The first movable plate component is movably disposed on the bracket component. The power source component is disposed on the bracket component. The power source component is connected to the first movable plate component. The power source component can drive the first movable plate component to move relative to the bracket component. The first milling motor component is disposed on the first movable plate component. By means of the power source component, the first movable plate component can be driven to move relative to the bracket component, so that the first milling motor component can move more flexibly on the bracket component, enabling the milling cutter on the first movable plate component to adjust its position as needed to adapt to different machining requirements. Moreover, it ensures the stability and efficiency of the power transmission of the power source component and reduces the machining error caused by power loss.

[0014] In one embodiment, the first movable plate assembly includes a first movable plate body, a first movable block, and a first sliding track. The first movable block is movably arranged on the bracket assembly and can slide relative to the bracket assembly. The first movable plate body is arranged on the first movable block, and the first sliding track is arranged on the first movable plate body. The first sliding track is arranged along the length direction of the first movable plate body, and the second milling component is movably arranged on the first sliding track. By arranging the first movable plate body on the first movable block, the first movable block provides a stable support foundation for the first movable plate body, ensuring the structural stability of the first movable plate body during the processing. By reasonably arranging the first movable plate body, the first movable block, and the first sliding track, the friction and wear of the first movable plate assembly during use are reduced.

[0015] In one embodiment, the power source component includes a lead screw motor, a lead screw, and a lead screw nut. The lead screw motor is arranged on the bracket assembly, the lead screw is connected to the output end of the lead screw motor, the lead screw nut is movably arranged on the lead screw, and the first movable plate assembly is arranged on the lead screw nut. By arranging the lead screw motor, the lead screw, and the lead screw nut, the rotational motion of the lead screw motor can be converted into linear motion, with high transmission efficiency. By driving the lead screw nut to move through the lead screw motor, the first movable plate assembly can quickly and accurately move along the height direction of the bracket assembly, enabling high-precision milling operations.

[0016] In one embodiment, a laser scribing component is further included. The laser scribing component includes a connecting plate and a scribing member. The connecting plate is arranged on the first milling component and / or the second milling component, and the scribing member is arranged on the connecting plate. The scribing member is used for scribing the profile. By arranging the laser scribing component, the milling structure is not limited to milling processing but can also perform scribing processing, increasing the versatility of the milling structure and making it suitable for more types of processing tasks. The laser scribing component can provide accurate position markings, which helps subsequent processing operations such as cutting, thereby improving the overall processing accuracy.

[0017] In one embodiment, the bracket assembly includes a support frame and a second sliding track. The second sliding track is disposed on the support frame and is arranged along the height direction of the support frame. The first milling component is movably disposed on the second sliding track and can slide relative to the second sliding track. The support frame provides a stable supporting effect, ensuring the stability of the entire milling structure during the processing. By arranging the second sliding track along the height direction of the support frame, the first milling component can slide along the height direction of the bracket assembly, improving the flexibility of the sliding of the first milling component, enabling the milling cutter to adjust the height as needed to adapt to different processing requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a perspective view of the milling structure;

[0019] Figure 2 is an exploded view of the milling structure;

[0020] Figure 3 is a perspective view of the second milling component;

[0021] Figure 4 is a first exploded view of the second milling component;

[0022] Figure 5 is a second exploded view of the second milling component;

[0023] Figure 6 is a perspective view of the first milling component;

[0024] Figure 7 is an exploded view of the first milling component;

[0025] Figure 8 is a perspective view of the laser scribing component;

[0026] Figure 9 is a perspective view of the bracket assembly.

[0027] Among them, the corresponding relationship between the reference numerals and the component names is as follows:

[0028] 1 bracket assembly, 11 support frame, 12 second sliding track;

[0029] 2 first milling component, 21 first movable plate assembly, 211 first movable plate body, 212 first movable block, 213 first sliding track, 22 power source component, 221 screw motor, 222 screw, 223 screw nut, 23 first milling motor assembly;

[0030] 3 The second milling component, 31 moving component, 311 second movable plate component, 3111 second movable block, 3112 second movable plate body, 312 connecting piece, 3121 supporting plate block, 3122 connecting plate block, 313 driving cylinder, 32 movable milling component, 321 rotating seat body, 322 second milling motor component, 3221 motor body, 3222 milling cutter, 323 driving part, 3231 supporting block, 3232 rotating cylinder;

[0031] 4 Laser scribing component, 41 connecting plate, 42 scribing piece. Detailed implementation mode

[0032] In order to more clearly understand the above-mentioned objects, features and advantages of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific implementation modes. It should be noted that, without conflict, the embodiments of the present application and the features in the embodiments can be combined with each other.

[0033] In the following description, many specific details are set forth in order to fully understand the present invention. However, the present invention can also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited by the specific embodiments disclosed below.

[0034] As Figure 1-2 shown, this embodiment discloses a milling structure, including: a bracket component 1; a first milling component 2, the first milling component 2 is movably arranged on the bracket component 1, the first milling component 2 is arranged along the height direction of the bracket component 1, and the first milling component 2 can move relative to the bracket component 1; a second milling component 3, the second milling component 3 is movably arranged on the first milling component 2, the second milling component 3 is arranged along the length direction of the first milling component 2, the second milling component 3 can move relative to the bracket component 1, the moving direction of the second milling component 3 relative to the first milling component 2 intersects with the moving direction of the first milling component 2 relative to the bracket component 1, and at least part of the second milling component 3 can rotate relative to the first milling component 2.

[0035] The present application discloses a milling structure. By arranging the first milling component 2 along the height direction of the support component 1, an adjustment space in the vertical direction is provided for the first milling component 2. By movably arranging the second milling component 3 on the first milling component 2, the second milling component 3 can move up and down and back and forth, increasing the precision and flexibility of the machining of the milling structure. By at least part of the second milling component 3 being able to rotate relative to the first milling component 2, the angle of the profile processed by the second milling component 3 can be adjusted, further enhancing the freedom of its operation and enabling it to adapt to more complex machining requirements. The milling structure of the present application can more precisely control the position, depth, and angle of milling through the independent movement and rotation of the first milling component 2 and the second milling component 3, thereby achieving high-precision milling machining.

[0036] As Figure 3 shown, in addition to the features of the above embodiments, this embodiment further defines that: the second milling component 3 includes a moving component 31 and a movable milling component 32. The moving component 31 is movably arranged on the first milling component 2, and the moving component 31 can move relative to the first milling component 2. The movable milling component 32 is movably arranged on the moving component 31, and the movable milling component 32 can rotate relative to the moving component 31. By moving the second milling component 3 along the length direction of the first milling component 2, the flexibility of the milling operation is increased. By the movable milling component 32 being able to rotate relative to the moving component 31, an additional rotational freedom is provided, making the milling of the movable milling component 32 more flexible and enabling it to adapt to more complex machining paths and shapes. This design enables the second milling component 3 to complete various milling tasks without replacing the milling cutter 3222, with high processing efficiency.

[0037] As Figure 4 shown, in addition to the features of the above embodiments, this embodiment further defines that: the movable milling component 32 includes a rotating seat body 321, a second milling motor component 322, and a driving member 323. The rotating seat body 321 is movably arranged on the moving component 31, the second milling motor component 322 is arranged on the rotating seat body 321, the driving member 323 is in transmission connection with the rotating seat body 321, and the driving member 323 can drive the rotating seat body 321 to rotate relative to the moving component 31. By directly installing the second milling motor component 322 on the rotating seat body 321, the second milling motor component 322 moves with the movement of the rotating seat body 321, ensuring the stability and efficiency of the power transmission of the second milling motor component 322. By the transmission connection between the driving member 323 and the rotating seat body 321, the design of the transmission system is simplified, the mechanical complexity is reduced, and at the same time, the maintenance cost and failure rate are also reduced.

[0038] As Figure 5As shown, in addition to the features of the above embodiments, this embodiment further defines that: the driving member 323 includes a support block 3231 and a rotating cylinder 3232. The support block 3231 is arranged on the rotating seat body 321, and the output end of the rotating cylinder 3232 is connected to the support block 3231. The rotating cylinder 3232 can drive the rotating seat body 321 to rotate relative to the moving assembly 31. By providing the support block 3231 as the installation base of the rotating cylinder 3232, the effect of the rotating cylinder 3232 driving the rotating seat body 321 is better. By providing the rotating cylinder 3232, a fast response time can be provided, which is more convenient for operations that require quickly adjusting the direction of the second milling motor assembly 322, thereby improving the processing efficiency.

[0039] As Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further defines that: the second milling motor assembly 322 includes a motor body 3221 and a milling cutter 3222. The motor body 3221 is arranged on the rotating seat body 321, and the milling cutter 3222 is arranged on the motor body 3221 and the milling cutter 3222 is located at the output end of the motor body 3221. By arranging the milling cutter 3222 on the motor body 3221, the entire second milling motor assembly 322 is more compact, reducing additional transmission components, which not only saves space but also reduces the overall weight. Moreover, the motor body 3221 directly drives the milling cutter 3222 to rotate, reducing the loss during the energy conversion process and improving the energy efficiency.

[0040] As Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further defines that: the moving assembly 31 includes a second movable plate assembly 311, a connecting member 312 and a driving cylinder 313. Both the second movable plate assembly 311 and the driving cylinder 313 are arranged on the first milling assembly 2. The connecting member 312 is respectively connected to the output end of the driving cylinder 313 and the second movable plate assembly 311. The driving cylinder 313 can drive the second movable plate assembly 311 to move relative to the first milling assembly 2. By providing the connecting member 312, the power transmission provided by the cylinder is relatively stable, which helps to maintain the stability of the milling cutter 3222 during the processing, thereby improving the processing accuracy. By the driving cylinder 313, the second movable plate assembly 311 can be pushed to move relative to the first milling assembly 2, so that the second movable plate assembly 311 can adjust its position according to needs to adapt to different processing requirements.

[0041] As Figure 5As shown, in addition to the features of the above embodiments, this embodiment further defines that the connecting member 312 includes a supporting plate 3121 and a connecting plate 3122. The supporting plate 3121 is arranged on the second movable plate assembly 311, the connecting plate 3122 is arranged on the supporting plate 3121, and the connecting plate 3122 is used for connecting with the output end of the driving cylinder 313. The arrangement of the supporting plate 3121 and the connecting plate 3122 simplifies the connection between the driving cylinder 313 and the second movable plate assembly 311, making the assembly and disassembly more convenient and fast, and helping to improve the production and maintenance efficiency. This design helps to provide sufficient strength and stiffness and reduce the vibration generated during the processing.

[0042] As Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further defines that the second movable plate assembly 311 includes a second movable block 3111 and a second movable plate body 3112. The number of the second movable blocks 3111 is multiple. The multiple second movable blocks 3111 are movably arranged on the first milling material assembly 2. The second movable blocks 3111 can slide relative to the first milling material assembly 2, and the second movable plate body 3112 is arranged on the second movable blocks 3111. The arrangement of the second movable blocks 3111 reduces the friction and wear during use and extends the service life of the product. Moreover, the arrangement of the second movable blocks 3111 provides stable support for the second movable plate body 3112 and ensures the stability of the second movable plate body 3112 during the processing.

[0043] As Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further defines that the first milling material assembly 2 includes a first movable plate assembly 21, a power source member 22, and a first milling material motor assembly 23. The first movable plate assembly 21 is movably arranged on the bracket assembly 1. The power source member 22 is arranged on the bracket assembly 1. The power source member 22 is connected to the first movable plate assembly 21. The power source member 22 can drive the first movable plate assembly 21 to move relative to the bracket assembly 1. The first milling material motor assembly 23 is arranged on the first movable plate assembly 21. The power source member 22 can drive the first movable plate assembly 21 to move relative to the bracket assembly 1, so that the first milling material motor assembly 23 moves more flexibly on the bracket assembly 1, enabling the milling cutter 3222 of the first movable plate assembly 21 to adjust its position as needed to adapt to different processing requirements. Moreover, it ensures the stability and efficiency of the power transmission of the power source member 22 and reduces the processing error caused by power loss.

[0044] As Figure 7As shown, in addition to the features of the above embodiments, this embodiment further defines that: the first movable plate assembly 21 includes a first movable plate body 211, a first movable block 212, and a first sliding track 213. The first movable block 212 is movably arranged on the bracket assembly 1, and the first movable block 212 can slide relative to the bracket assembly 1. The first movable plate body 211 is arranged on the first movable block 212, the first sliding track 213 is arranged on the first movable plate body 211, the first sliding track 213 is arranged along the length direction of the first movable plate body 211, and the second milling component 3 is movably arranged on the first sliding track 213. By arranging the first movable plate body 211 on the first movable block 212, the first movable block 212 provides a stable support basis for the first movable plate body 211, ensuring the structural stability of the first movable plate body 211 during the processing. By reasonably arranging the first movable plate body 211, the first movable block 212, and the first sliding track 213, the friction and wear of the first movable plate assembly 21 during use are reduced.

[0045] As Figure 7 shown, in addition to the features of the above embodiments, this embodiment further defines that: the power source component 22 includes a lead screw motor 221, a lead screw 222, and a lead screw nut 223. The lead screw motor 221 is arranged on the bracket assembly 1, the lead screw 222 is connected to the output end of the lead screw motor 221, the lead screw nut 223 is movably arranged on the lead screw 222, and the first movable plate assembly 21 is arranged on the lead screw nut 223. By arranging the lead screw motor 221, the lead screw 222, and the lead screw nut 223, the rotational motion of the lead screw motor 221 can be converted into linear motion, with high transmission efficiency. By driving the lead screw nut 223 to move through the lead screw motor 221, the first movable plate assembly 21 can quickly and accurately move along the height direction of the bracket assembly 1, and can perform high-precision milling operations.

[0046] As Figure 8 shown, in addition to the features of the above embodiments, this embodiment further defines that: it further includes a laser scribing component 4. The laser scribing component 4 includes a connecting plate 41 and a scribing part 42. The connecting plate 41 is arranged on the first milling component 2 and / or the second milling component 3, the scribing part 42 is arranged on the connecting plate 41, and the scribing part 42 is used for scribing the profile. By arranging the laser scribing component 4, the milling structure is not limited to milling processing, but can also perform scribing processing, increasing the versatility of the milling structure and being applicable to more types of processing tasks. Through the laser scribing component 4, precise position marks can be provided, which helps subsequent processing procedures such as cutting, thereby improving the overall processing accuracy.

[0047] AsFigure 9 As shown, in addition to the features of the above embodiments, this embodiment further defines that the bracket assembly 1 includes a support frame 11 and a second sliding track 12. The second sliding track 12 is arranged on the support frame 11 and is arranged along the height direction of the support frame 11. The first milling component 2 is movably arranged on the second sliding track 12, and the first milling component 2 can slide relative to the second sliding track 12. The support frame 11 provides a stable supporting effect, ensuring the stability of the entire milling structure during the processing. By arranging the second sliding track 12 along the height direction of the support frame 11, the first milling component 2 can slide along the height direction of the bracket assembly 1, improving the flexibility of the sliding of the first milling component 2, enabling the milling cutter 3222 to adjust the height according to needs to adapt to different processing requirements.

[0048] The above embodiments only represent several implementation manners of the present utility model, and the description thereof is relatively specific and detailed, but it should not be construed as a limitation to the scope of the utility model patent. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present utility model, several deformations and improvements can still be made, and these all belong to the protection scope of the present utility model. Therefore, the protection scope of the present utility model patent shall be subject to the appended claims.

Claims

1. A milling material structure, characterized in that: include: Bracket assembly (1); A first milling material component (2), the first milling material component (2) is movably arranged on the support component (1), the first milling material component (2) is arranged along the height direction of the support component (1), and the first milling material component (2) can move relative to the support component (1); A second milling material component (3), the second milling material component (3) is movably arranged on the first milling material component (2), the second milling material component (3) is arranged along the length direction of the first milling material component (2), the second milling material component (3) can move relative to the support component (1), the direction in which the second milling material component (3) moves relative to the first milling material component (2) is staggered with the direction in which the first milling material component (2) moves relative to the support component (1), and the second milling material component (3) can at least partially rotate relative to the first milling material component (2).

2. The milling material structure according to claim 1, characterized in that: The second milling component (3) comprises a moving component (31) and a movable milling component (32); the moving component (31) is movably arranged on the first milling component (2); the moving component (31) can move relative to the first milling component (2); the movable milling component (32) is movably arranged on the moving component (31); the movable milling component (32) can rotate relative to the moving component (31).

3. The milling material structure according to claim 2, characterized in that: The movable milling assembly (32) comprises a rotating seat body (321), a second milling motor assembly (322) and a driving member (323); the rotating seat body (321) is movably arranged on the movable assembly (31); the second milling motor assembly (322) is arranged on the rotating seat body (321); the driving member (323) is transmission-connected with the rotating seat body (321); and the driving member (323) can drive the rotating seat body (321) to rotate relative to the movable assembly (31).

4. The milling material structure according to claim 3, characterized in that: The driving member (323) comprises a supporting block (3231) and a rotating cylinder (3232); the supporting block (3231) is arranged on the rotating seat body (321); the output end of the rotating cylinder (3232) is connected to the supporting block (3231); and the rotating cylinder (3232) can drive the rotating seat body (321) to rotate relative to the moving assembly (31); And / or the second milling motor assembly (322) comprises a motor body (3221) and a milling cutter (3222), wherein the motor body (3221) is arranged on the rotating seat (321), and the milling cutter (3222) is arranged on the motor body (3221) and the milling cutter (3222) is located at the output end of the motor body (3221).

5. The milling material structure according to claim 2, characterized in that: The moving assembly (31) comprises a second movable plate assembly (311), a connecting piece (312) and a driving cylinder (313); the second movable plate assembly (311) and the driving cylinder (313) are both arranged on the first milling assembly (2); the connecting piece (312) is respectively connected to the output end of the driving cylinder (313) and the second movable plate assembly (311); the driving cylinder (313) can drive the second movable plate assembly (311) to move relative to the first milling assembly (2).

6. The milling material structure according to claim 5, characterized in that: The connecting member (312) comprises a supporting plate (3121) and a connecting plate (3122), wherein the supporting plate (3121) is arranged on the second movable plate assembly (311), and the connecting plate (3122) is arranged on the supporting plate (3121), and the connecting plate (3122) is used to be connected to the output end of the driving cylinder (313); And / or the second movable plate assembly (311) comprises a second movable block (3111) and a second movable plate body (3112); the number of the second movable blocks (3111) is multiple, the multiple second movable blocks (3111) are movably arranged on the first milling material assembly (2); the second movable block (3111) can slide relative to the first milling material assembly (2); and the second movable plate body (3112) is arranged on the second movable block (3111).

7. The milling material structure according to claim 1, characterized in that: The first milling material component (2) comprises a first movable plate component (21), a power source component (22) and a first milling material motor component (23); the first movable plate component (21) is movably arranged on the support component (1); the power source component (22) is arranged on the support component (1); the power source component (22) is connected to the first movable plate component (21); the power source component (22) can drive the first movable plate component (21) to move relative to the support component (1); and the first milling material motor component (23) is arranged on the first movable plate component (21).

8. The milling material structure according to claim 7, characterized in that: The first movable plate assembly (21) comprises a first movable plate body (211), a first movable block (212) and a first sliding track (213); the first movable block (212) is movably arranged on the bracket assembly (1); the first movable block (212) can slide relative to the bracket assembly (1); the first movable plate body (211) is arranged on the first movable block (212); the first sliding track (213) is arranged on the first movable plate body (211); the first sliding track (213) is arranged along the length direction of the first movable plate body (211); and the second milling assembly (3) is movably arranged on the first sliding track (213); And / or the power source component (22) comprises a screw motor (221), a screw (222) and a screw nut (223), the screw motor (221) is arranged on the bracket assembly (1), the screw (222) is connected to the output end of the screw motor (221), the screw nut (223) is movably arranged on the screw (222), and the first movable plate assembly (21) is arranged on the screw nut (223).

9. The milling material structure according to claim 1, characterized in that: The invention also comprises a laser engraving assembly (4), wherein the laser engraving assembly (4) comprises a connecting plate (41) and an engraving member (42), wherein the connecting plate (41) is arranged on the first milling material assembly (2) and / or the second milling material assembly (3), and the engraving member (42) is arranged on the connecting plate (41), and the engraving member (42) is used for engraving the profile.

10. The milling material structure according to claim 1, characterized in that: The support assembly (1) comprises a support frame (11) and a second sliding track (12); the second sliding track (12) is arranged on the support frame (11); the second sliding track (12) is arranged along the height direction of the support frame (11); the first milling assembly (2) is movably arranged on the second sliding track (12); the first milling assembly (2) can slide relative to the second sliding track (12).

Images