Milling device of sawing machine

Abstract

The utility model relates to a material milling device of a sawing machine, and belongs to the field of sawing machines. The clamping assembly is arranged on the supporting assembly, and the clamping assembly is used for clamping or loosening the profile; the first material milling assembly is arranged on the supporting assembly, and the first material milling assembly can move in the direction close to or away from the clamping assembly relative to the supporting assembly; and the second milling assembly is arranged on the supporting assembly, the second milling assembly can move in the direction close to or away from the clamping assembly relative to the supporting assembly, and the part, used for milling the profile, of the second milling assembly can rotate relative to the supporting assembly. According to the material milling device of the sawing machine, the first material milling assembly and the second material milling assembly are driven by independent servo, so that the first material milling assembly and the second material milling assembly can machine different parts of a sectional material at the same time, the machining efficiency is higher, and the machining time is shortened.

Description

Technical Field

[0001] The utility model relates to the field of sawing machines, in particular to a material milling device of a sawing machine. Background Art

[0002] In the traditional metalworking industry, sawing machines are used to cut and mill metal profiles. However, existing sawing machines have several limitations: the movements of their multiple milling components are interconnected, meaning they operate within the same active unit, requiring complex control systems to ensure coordinated movement. Furthermore, multiple milling components within the same unit cannot simultaneously process profiles. Utility Model Content

[0003] Based on this, it is necessary to provide a sawing machine milling device to address the problem that multiple milling components in the same active unit of a traditional sawing machine cannot process profiles at the same time.

[0004] A sawing machine milling device includes: a support assembly; a clamping assembly, the clamping assembly is arranged on the support assembly, and the clamping assembly is used to clamp or loosen the profile; a first milling assembly, the first milling assembly is arranged on the support assembly, the first milling assembly can move relative to the support assembly toward or away from the clamping assembly, and the first milling assembly is used for milling the profile; a second milling assembly, the second milling assembly is arranged on the support assembly, the second milling assembly can move relative to the support assembly toward or away from the clamping assembly, and the part of the second milling assembly used for milling the profile can rotate relative to the support assembly.

[0005] The present application discloses a milling device for a sawing machine, which can automatically clamp or loosen the profile through the setting of a clamping component, so as to avoid the profile from loosening during the processing and affecting the processing accuracy of the profile. The first milling component and the second milling component are independently set and their movements do not affect each other, that is, the first milling component and the second milling component are driven by independent servos, so that the first milling component and the second milling component can process different parts of the profile at the same time, which is more efficient and reduces the processing time. Moreover, the equipment can automatically identify the profile, and different first milling components or second milling components can be selected according to the processing surface of the profile, which is highly practical. The first milling component and the second milling component can perform precise feeding movement relative to the support component, ensuring the accuracy of the milling depth and width. This precise control helps to reduce processing errors and improve the overall quality of the product.

[0006] In one embodiment, there are multiple first milling assemblies, each of which is disposed on the support assembly. Two of the multiple first milling assemblies are disposed opposite each other and are located at the bottom of the support assembly, and another of the multiple first milling assemblies is located at the top of the support assembly. The multiple first milling assemblies are each movable relative to the support assembly toward or away from the clamping assembly, and the multiple first milling assemblies are each used to mill different sides of the profile. The number of first milling assemblies is preferably three, and the three first milling assemblies and the second milling assemblies are each driven by an independent servo, so that they can all move independently, allowing milling to be performed on multiple sides of the profile simultaneously, significantly improving the processing efficiency of the profile and reducing processing time.

[0007] In one embodiment, the second milling component is located at the top of the support component. With the second milling component located at the top, the upper surface of the profile and the side surface near the top can be easily milled, thereby achieving full coverage of the profile.

[0008] In one embodiment, the first milling assembly and the second milling assembly are located on the same side of the support assembly. This allows for a more compact machine, reduces the footprint of the support assembly, and improves space utilization. Furthermore, the first and second milling assemblies on the same side facilitate better coordination, enabling simultaneous or sequential machining and improving overall operational efficiency.

[0009] In one embodiment, the first milling assembly includes a first movable assembly, a second movable assembly, a third movable assembly, and a first milling part. The first movable assembly is mounted on the support assembly and is movable relative to the support assembly. The second movable assembly is mounted on the first movable assembly and is movable relative to the first movable assembly. The third movable assembly is mounted on the second movable assembly and is movable relative to the second movable assembly. The direction of movement of the third movable assembly relative to the second movable assembly, the direction of movement of the second movable assembly relative to the first movable assembly, and the direction of movement of the first movable assembly relative to the support assembly are all different. The first milling part is mounted on the third movable assembly and is used for milling profiles. The arrangement of the first, second, and third movable assemblies enables the first milling part to be precisely positioned and moved in multiple directions. This design allows for fine adjustment of the milling part in multiple directions to accommodate complex processing requirements. This multi-dimensional movement capability enables the milling part to process profiles of various sizes, shapes, and contours.

[0010] In one embodiment, the first moving assembly includes a first slider, a first bracket assembly, a first screw assembly and a first slide rail. The number of the first sliders is multiple, and the multiple first sliders are all arranged on the support assembly. The first bracket assembly is arranged on the first slider, the first screw assembly is arranged on the support assembly, the screw nut of the first screw assembly is connected to the first bracket assembly, and the first screw assembly can drive the first bracket assembly and the first slider to move relative to the support assembly. The number of the first slide rails is multiple, and the multiple first slide rails are all arranged on the first bracket assembly. The second moving assembly is arranged on the first slide rail and can slide on the first slide rail. The screw nut of the first screw assembly is connected to the first bracket, so that the rotation of the motor of the first screw assembly will cause the screw nut of the first screw assembly to move linearly, so that the first bracket assembly can move quickly and smoothly under the drive of the first screw assembly. The setting of the first slide rail ensures the smooth sliding of the second moving assembly thereon, reducing friction resistance and wear.

[0011] In one embodiment, the second movable assembly includes a second slider, a second bracket assembly, a second screw assembly, and a second slide rail. The number of the second sliders is multiple, and the multiple second sliders are all arranged on the first movable assembly. The second bracket assembly is arranged on the second slider. The second screw assembly is arranged on the first movable assembly. The screw nut of the second screw assembly is connected to the second bracket assembly. The second screw assembly can drive the second bracket assembly and the second slider to move relative to the first movable assembly. The number of the second slide rails is multiple, and the multiple second slide rails are all arranged on the second bracket assembly. The third movable assembly is arranged on the second slide rail and can slide on the second slide rail. The coordinated work of the second slider, the second bracket assembly, the second screw assembly, and the second slide rail achieves secondary precise positioning based on the first movable assembly. The secondary movable design enables the entire first milling assembly to adapt to more complex and varied processing requirements, such as processing of curved surfaces, inclined surfaces, or irregular shapes.

[0012] In one embodiment, the third moving assembly includes a first drive screw assembly, a first support plate assembly and a third slider. The number of the third sliders is multiple, and the multiple third sliders are all arranged on the second moving assembly. The first support plate assembly is arranged on the third slider, the first drive screw assembly is arranged on the second moving assembly, the screw nut of the first drive screw assembly is connected to the first support plate assembly, and the first drive screw assembly can drive the first support plate assembly and the third slider to move relative to the second moving assembly. Through the coordinated work of the first drive screw assembly, the first support plate assembly and the third slider, a third precise positioning based on the second moving assembly is achieved. This three-stage movement design can provide extremely high positioning accuracy and meet application scenarios with extremely high requirements for processing accuracy.

[0013] In one embodiment, the direction of movement of the third movable assembly relative to the second movable assembly, the direction of movement of the second movable assembly relative to the first movable assembly, and the direction of movement of the first movable assembly relative to the support assembly are perpendicular to each other. By aligning the three movable assemblies in perpendicular directions, i.e., along the X-axis, Y-axis, and Z-axis, precise positioning and movement in any direction are possible, adapting to various complex processing requirements. Furthermore, the independent vertical movement of each movable assembly effectively reduces the accumulation and transmission of errors, ensuring high precision during processing.

[0014] In one embodiment, the second milling assembly includes a first movable assembly, a second movable assembly, a third movable assembly, and a second milling part. The first movable assembly is disposed on the support assembly and is movable relative to the support assembly. The second movable assembly is disposed on the first movable assembly and is movable relative to the first movable assembly. The third movable assembly is disposed on the second movable assembly and is movable relative to the second movable assembly. The direction of movement of the third movable assembly relative to the second movable assembly, the direction of movement of the second movable assembly relative to the first movable assembly, and the direction of movement of the first movable assembly relative to the support assembly are different. The second milling part is disposed on the third movable assembly and is rotatable relative to the third movable assembly. The second milling part is used for milling profiles. Through the coordinated operation of the first, second, and third movable assemblies, the second milling part achieves independent movement in multiple directions. This design enables the second milling part to be precisely positioned and adjusted in three-dimensional space to accommodate various complex processing requirements.

[0015] In one embodiment, the first movable assembly includes a third screw assembly and a third bracket assembly. The third screw assembly is mounted on the support assembly, and a screw nut of the third screw assembly is connected to the third bracket assembly. The third screw assembly is capable of driving the third bracket assembly to move relative to the support assembly. The third screw nut is connected to the third bracket assembly, thereby enabling the third bracket assembly to achieve precise linear motion. Furthermore, the screw drive has high precision and excellent repeatability, ensuring accurate positioning of the second milling part during movement.

[0016] In one embodiment, the second movable assembly includes a fourth screw assembly and a fourth bracket assembly. The fourth screw assembly is disposed on the first movable assembly, and the screw nut of the fourth screw assembly is connected to the fourth bracket assembly. The fourth screw assembly is capable of driving the fourth bracket assembly to move relative to the first movable assembly. The coordinated operation of the fourth screw assembly and the fourth bracket achieves secondary precise positioning based on the first movable assembly. The two-stage movement design enables the entire second milling assembly to adapt to more complex and varied processing requirements, such as processing curved surfaces, inclined surfaces, or irregular shapes.

[0017] In one embodiment, the third movable assembly includes a second drive screw assembly and a second support plate assembly, the second drive screw assembly is disposed on the second movable assembly, the screw nut of the second drive screw assembly is connected to the second support plate assembly, and the second drive screw assembly is capable of driving the second support plate assembly to move relative to the second movable assembly. Through the coordinated operation of the second drive screw assembly and the second support plate assembly, a third precise positioning based on the second movable assembly is achieved. This three-stage movement design can provide extremely high positioning accuracy and meet application scenarios with extremely high requirements for processing precision.

[0018] In one embodiment, the direction of movement of the third movable assembly relative to the second movable assembly, the direction of movement of the second movable assembly relative to the first movable assembly, and the direction of movement of the first movable assembly relative to the support assembly are perpendicular to each other. By aligning the movement directions of the three movable assemblies perpendicular to each other, precise positioning and movement in any direction are possible, adapting to various complex processing requirements. Furthermore, the independent vertical movement of each movable assembly effectively reduces the accumulation and transmission of errors, ensuring high precision during processing.

[0019] In one embodiment, the clamping assembly includes a support portion, a first clamping portion, and a second clamping portion. The support portion is arranged on the support assembly, and the support portion is used to support the profile. The first clamping portion and the second clamping portion are both arranged on the support portion. The portion of the first clamping portion used to clamp or loosen the profile can move relative to the support portion toward or away from the profile. The portion of the second clamping portion used to clamp or loosen the profile can move relative to the support portion toward or away from the profile. The first clamping portion and the second clamping portion can be used to clamp different sides of the profile, respectively. The arrangement of the first clamping portion and the second clamping portion enables different sides of the profile to be clamped, respectively, providing a flexible clamping method. This design can adapt to profiles of different shapes and sizes, enhancing the versatility of the equipment. This precise clamping positioning helps reduce processing errors and improve the overall quality of the product.

[0020] In one embodiment, the support assembly includes a first support frame body, a second support frame body, and a third support frame body, wherein the second support frame body and the third support frame body are both arranged on the first support frame body, and the second support frame body and the third support frame body are respectively located at two ends of the first support frame body, and there are multiple first milling material assemblies, multiple first milling material assemblies are arranged on the first support frame body and / or the third support frame body, and the second milling material assembly is arranged on the second support frame body. The arrangement of the first support frame body, the second support frame body, and the third support frame body forms a stable multi-point support structure, making the assembly distribution of the first milling material assembly and the second milling material assembly more reasonable.

[0021] In one embodiment, the machine further includes a plurality of scoring assemblies, one of which is disposed on the first milling material assembly, and another of which is disposed on the second milling material assembly. By disposing the multiple scoring assemblies on the first milling material assembly and the second milling material assembly, precise scoring can be performed simultaneously with milling. This design ensures precise alignment of the scoring and milling processes, improving product processing accuracy and quality consistency. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A first perspective view of a milling device of a sawing machine;

[0023] Figure 2 A second perspective view of the sawing machine milling device;

[0024] Figure 3 This is an exploded view of the sawing machine's milling device;

[0025] Figure 4 is a three-dimensional diagram of the first milling component;

[0026] Figure 5 This is an exploded view of the first milling component;

[0027] Figure 6 is a perspective view of a first moving assembly;

[0028] Figure 7 is a perspective view of a second moving assembly;

[0029] Figure 8 is a perspective view of a third mobile assembly;

[0030] Figure 9 is a perspective view of the second milling component;

[0031] Figure 10 This is an exploded view of the second milling component;

[0032] Figure 11 is a perspective view of the clamping assembly;

[0033] Figure 12 This is an exploded view of the clamping assembly;

[0034] Figure 13 A perspective view of the first milling component and the scoring component;

[0035] Figure 14 A perspective view of the support assembly.

[0036] The corresponding relationship between the reference numerals and component names is as follows:

[0037] 1 support assembly, 11 first support frame, 12 second support frame, 13 third support frame;

[0038] 2 clamping assembly, 21 supporting portion, 22 first clamping portion, 23 second clamping portion;

[0039] 3 first milling assembly, 31 first moving assembly, 311 first slider, 312 first bracket assembly, 313 first screw assembly, 314 first slide rail, 32 second moving assembly, 321 second slider, 322 second bracket assembly, 323 second screw assembly, 324 second slide rail, 33 third moving assembly, 331 first drive screw assembly, 332 first support plate assembly, 333 third slider, 34 first milling part;

[0040] 4 second milling component, 41 first movable component, 411 third screw assembly, 412 third bracket assembly, 42 second movable component, 421 fourth screw assembly, 422 fourth bracket assembly, 43 third movable component, 431 second drive screw assembly, 432 second support plate assembly, 44 second milling part;

[0041] 5 engraved line components. DETAILED DESCRIPTION

[0042] In order to more clearly understand the above-mentioned objectives, features and advantages of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the embodiments of the present application and the features therein can be combined with each other without conflict.

[0043] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0044] like Figure 1-3 As shown, this embodiment discloses a sawing machine milling device, including: a support component 1; a clamping component 2, the clamping component 2 is arranged on the support component 1, and the clamping component 2 is used to clamp or loosen the profile; a first milling component 3, the first milling component 3 is arranged on the support component 1, the first milling component 3 can move relative to the support component 1 toward or away from the clamping component 2, and the first milling component 3 is used for milling the profile; a second milling component 4, the second milling component 4 is arranged on the support component 1, the second milling component 4 can move relative to the support component 1 toward or away from the clamping component 2, and the part of the second milling component 4 used for milling the profile can rotate relative to the support component 1.

[0045] The present application discloses a sawing machine milling device, which can automatically clamp or loosen the profile through the setting of the clamping component 2, so as to avoid the profile from loosening during the processing and affecting the processing accuracy of the profile. The first milling component 3 and the second milling component 4 are independently set and their movements do not affect each other, that is, the first milling component 3 and the second milling component 4 are driven by independent servos, so that the first milling component 3 and the second milling component 4 can process different parts of the profile at the same time, which is more efficient and reduces the processing time. Moreover, the equipment can automatically identify the profile, and different first milling components 3 or second milling components 4 can be selected according to the processing surface of the profile, which is highly practical. The first milling component 3 and the second milling component 4 can perform precise feeding movement relative to the support component 1, ensuring the accuracy of the milling depth and width. This precise control helps to reduce processing errors and improve the overall quality of the product.

[0046] like Figure 3As shown, in addition to the features of the above embodiment, this embodiment further defines: the number of the first milling components 3 is multiple, the multiple first milling components 3 are all arranged on the support component 1, two of the multiple first milling components 3 are arranged opposite each other and are located at the bottom of the support component 1, and another of the multiple first milling components 3 is located at the top of the support component 1, the multiple first milling components 3 are all able to move relative to the support component 1 toward or away from the clamping component 2, and the multiple first milling components 3 respectively process different sides of the profile. The number of the first milling components 3 is preferably three, and the three first milling components 3 and the second milling components 4 are all driven by independent servos, so that they can all move independently, and can perform milling processing on multiple sides of the profile at the same time, significantly improving the processing efficiency of the profile and reducing the processing time.

[0047] like Figure 1 and Figure 2 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the second milling assembly 4 is located at the top of the support assembly 1. With the second milling assembly 4 located at the top, the upper surface of the profile and the side surface near the top can be conveniently milled, achieving full coverage of the profile.

[0048] like Figure 1 and Figure 2 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further provides that the first milling assembly 3 and the second milling assembly 4 are located on the same side of the support assembly 1. By locating the first milling assembly 3 and the second milling assembly 4 on the same side of the support assembly 1, the equipment can be made more compact, reducing the area occupied by the support assembly 1 and improving space utilization. Furthermore, the first milling assembly 3 and the second milling assembly 4 on the same side can better cooperate with each other, achieving synchronous or sequential processing and improving overall operational efficiency.

[0049] like Figure 4 and Figure 5As shown, in addition to the features of the above embodiment, this embodiment further defines that: the first milling assembly 3 includes a first movable assembly 31, a second movable assembly 32, a third movable assembly 33, and a first milling part 34. The first movable assembly 31 is arranged on the support assembly 1 and can move relative to the support assembly 1. The second movable assembly 32 is arranged on the first movable assembly 31 and can move relative to the first movable assembly 31. The third movable assembly 33 is arranged on the second movable assembly 32 and can move relative to the second movable assembly 32. The direction of movement of the third movable assembly 33 relative to the second movable assembly 32, the direction of movement of the second movable assembly 32 relative to the first movable assembly 31, and the direction of movement of the first movable assembly 31 relative to the support assembly 1 are all different. The first milling part 34 is arranged on the third movable assembly 33 and is used for milling profiles. The arrangement of the first movable assembly 31, the second movable assembly 32, and the third movable assembly 33 allows the first milling part 34 to be precisely positioned and moved in multiple directions. This design allows the milling part to be finely adjusted in multiple directions to accommodate complex processing requirements. This multi-dimensional movement capability enables the milling part to process profiles of various sizes, shapes and contours.

[0050] like Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further defines: the first moving component 31 includes a first slider 311, a first bracket component 312, a first screw rod component 313 and a first slide rail 314, the number of the first sliders 311 is multiple, and multiple first sliders 311 are all arranged on the support component 1, the first bracket component 312 is arranged on the first slider 311, the first screw rod component 313 is arranged on the support component 1, the screw nut of the first screw rod component 313 is connected to the first bracket component 312, the first screw rod component 313 can drive the first bracket component 312 and the first slider 311 to move relative to the support component 1, the number of the first slide rail 314 is multiple, and multiple first slide rails 314 are all arranged on the first bracket component 312, and the second moving component 32 is arranged on the first slide rail 314 and can slide on the first slide rail 314. The screw nut of the first screw assembly 313 is connected to the first bracket, so that rotation of the motor of the first screw assembly 313 causes the screw nut of the first screw assembly 313 to move linearly, allowing the first bracket assembly 312 to move quickly and smoothly under the drive of the first screw assembly 313. The provision of the first slide rail 314 ensures smooth sliding of the second moving assembly 32 thereon, reducing frictional resistance and wear.

[0051] like Figure 7 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the second moving assembly 32 includes a second slider 321, a second bracket assembly 322, a second screw assembly 323, and a second slide rail 324. The number of the second sliders 321 is multiple, and the multiple second sliders 321 are all disposed on the first moving assembly 31. The second bracket assembly 322 is disposed on the second slider 321. The second screw assembly 323 is disposed on the first moving assembly 31. The screw nut of the second screw assembly 323 is connected to the second bracket assembly 322. The second screw assembly 323 can drive the second bracket assembly 322 and the second slider 321 to move relative to the first moving assembly 31. The number of the second slide rails 324 is multiple, and the multiple second slide rails 324 are all disposed on the second bracket assembly 322. The third moving assembly 33 is disposed on the second slide rail 324 and can slide on the second slide rail 324. The coordinated operation of the second slider 321, the second bracket assembly 322, the second screw assembly 323, and the second slide rail 324 achieves secondary precise positioning based on the first moving assembly 31. The two-stage movement design enables the entire first milling component 3 to adapt to more complex and varied processing requirements, such as processing of curved surfaces, inclined surfaces or irregular shapes.

[0052] like Figure 8 As shown, in addition to the features of the above embodiment, this embodiment further defines: the third movable assembly 33 includes a first drive screw assembly 331, a first support plate assembly 332, and a third slider 333. There are multiple third sliders 333, each of which is disposed on the second movable assembly 32. The first support plate assembly 332 is disposed on the third slider 333. The first drive screw assembly 331 is disposed on the second movable assembly 32. The screw nut of the first drive screw assembly 331 is connected to the first support plate assembly 332. The first drive screw assembly 331 is capable of driving the first support plate assembly 332 and the third slider 333 to move relative to the second movable assembly 32. The coordinated operation of the first drive screw assembly 331, the first support plate assembly 332, and the third slider 333 achieves a third precise positioning of the second movable assembly 32. This three-stage movement design provides extremely high positioning accuracy, meeting the requirements of applications with extremely high machining precision.

[0053] like Figure 4 and Figure 5As shown, in addition to the features of the above-described embodiment, this embodiment further specifies that the direction of movement of the third movable assembly 33 relative to the second movable assembly 32, the direction of movement of the second movable assembly 32 relative to the first movable assembly 31, and the direction of movement of the first movable assembly 31 relative to the support assembly 1 are perpendicular to each other. By aligning the movement directions of the three movable assemblies perpendicular to each other, namely, movement along the X-axis, Y-axis, and Z-axis, precise positioning and movement in any direction are possible, adapting to various complex processing requirements. Furthermore, the independent vertical movement of each movable assembly effectively reduces the accumulation and transmission of errors, ensuring high precision during the processing.

[0054] like Figure 9 As shown, in addition to the features of the above embodiment, this embodiment further defines: the second milling component 4 includes a first movable component 41, a second movable component 42, a third movable component 43 and a second milling part 44, the first movable component 41 is arranged on the support component 1, and the first movable component 41 can move relative to the support component 1, the second movable component 42 is arranged on the first movable component 41, and the second movable component 42 can move relative to the first movable component 41, the third movable component 43 is arranged on the second movable component 42, and the third movable component 43 can move relative to the second movable component 42, the direction of movement of the third movable component 43 relative to the second movable component 42, the direction of movement of the second movable component 42 relative to the first movable component 41 and the direction of movement of the first movable component 41 relative to the support component 1 are different, the second milling part 44 is arranged on the third movable component 43, the second milling part 44 can rotate relative to the third movable component 43, and the second milling part 44 is used for milling profiles. The coordinated operation of the first movable assembly 41, the second movable assembly 42, and the third movable assembly 43 enables the second milling piece 44 to independently move in multiple directions. This design enables the second milling piece 44 to be precisely positioned and adjusted in three dimensions, adapting to various complex processing requirements.

[0055] like Figure 10As shown, in addition to the features of the above embodiment, this embodiment further defines: the first movable assembly 41 includes a third screw assembly 411 and a third bracket assembly 412. The third screw assembly 411 is disposed on the support assembly 1, and the screw nut of the third screw assembly 411 is connected to the third bracket assembly 412. The third screw assembly 411 can drive the third bracket assembly 412 to move relative to the support assembly 1. The third screw nut is connected to the third bracket assembly 412, so that the third bracket assembly 412 can achieve precise linear motion. Moreover, the screw drive has high precision and good repeatability, ensuring the accurate positioning of the second milling part 44 during movement.

[0056] like Figure 10 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the second movable component 42 includes a fourth screw assembly 421 and a fourth bracket assembly 422, the fourth screw assembly 421 is arranged on the first movable component 41, the screw nut of the fourth screw assembly 421 is connected to the fourth bracket assembly 422, and the fourth screw assembly 421 can drive the fourth bracket assembly 422 to move relative to the first movable component 41. The coordinated work of the fourth screw assembly 421 and the fourth bracket achieves secondary precise positioning based on the first movable component 41. The two-stage movement design enables the entire second milling component 4 to adapt to more complex and varied processing requirements, such as the processing of curved surfaces, inclined surfaces or irregular shapes.

[0057] like Figure 10 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the third movable component 43 includes a second drive screw assembly 431 and a second support plate assembly 432, the second drive screw assembly 431 is arranged on the second movable component 42, the screw nut of the second drive screw assembly 431 is connected to the second support plate assembly 432, and the second drive screw assembly 431 can drive the second support plate assembly 432 to move relative to the second movable component 42. Through the coordinated operation of the second drive screw assembly 431 and the second support plate assembly 432, a third precise positioning based on the second movable component 42 is achieved. This three-stage movement design can provide extremely high positioning accuracy and meet application scenarios with extremely high requirements for processing precision.

[0058] like Figure 9 and Figure 10As shown, in addition to the features of the above-described embodiment, this embodiment further specifies that the direction of movement of the third movable assembly 43 relative to the second movable assembly 42, the direction of movement of the second movable assembly 42 relative to the first movable assembly 41, and the direction of movement of the first movable assembly 41 relative to the support assembly 1 are perpendicular to each other. By ensuring that the movement directions of the three movable assemblies are perpendicular to each other, precise positioning and movement in any direction are possible, adapting to various complex processing requirements. Furthermore, the independent vertical movement of each movable assembly effectively reduces the accumulation and transmission of errors, ensuring high precision during processing.

[0059] like Figure 11 and Figure 12 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines: the clamping assembly 2 includes a support portion 21, a first clamping portion 22, and a second clamping portion 23. The support portion 21 is disposed on the support assembly 1 and is used to support the profile. The first clamping portion 22 and the second clamping portion 23 are both disposed on the support portion 21. The portion of the first clamping portion 22 used to clamp or release the profile can move toward or away from the profile relative to the support portion 21. The portion of the second clamping portion 23 used to clamp or release the profile can move toward or away from the profile relative to the support portion 21. The first clamping portion 22 and the second clamping portion 23 can each be used to clamp different sides of the profile. The arrangement of the first clamping portion 22 and the second clamping portion 23 allows for clamping different sides of the profile, providing a flexible clamping method. This design can accommodate profiles of different shapes and sizes, enhancing the versatility of the device. This precise clamping positioning helps reduce processing errors and improve the overall quality of the product.

[0060] like Figure 14 As shown, in addition to the features of the above embodiment, this embodiment further defines that: the support assembly 1 includes a first support frame body 11, a second support frame body 12 and a third support frame body 13, the second support frame body 12 and the third support frame body 13 are both arranged on the first support frame body 11, the second support frame body 12 and the third support frame body 13 are respectively located at the two ends of the first support frame body 11, the number of the first milling material components 3 is multiple, and multiple first milling material components 3 are arranged on the first support frame body 11 and / or the third support frame body 13, and the second milling material component 4 is arranged on the second support frame body 12. A stable multi-point support structure is formed by the arrangement of the first support frame body 11, the second support frame body 12 and the third support frame body 13, so that the assembly distribution of the first milling material component 3 and the second milling material component 4 is more reasonable.

[0061] like Figure 13As shown, in addition to the features of the above-mentioned embodiment, this embodiment further comprises: a plurality of scoreline assemblies 5, one of which is disposed on the first milling material assembly 3, and another of which is disposed on the second milling material assembly 4. By disposing the plurality of scoreline assemblies 5 on the first milling material assembly 3 and the second milling material assembly 4, respectively, precise scoreline marking can be performed simultaneously with milling. This design ensures precise alignment of the scoreline with the milling process, improving the processing accuracy and quality consistency of the product.

[0062] The above embodiments merely illustrate several implementations of the present invention. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that a person skilled in the art would be able to make numerous variations and improvements without departing from the concept of the present invention, and these variations and improvements fall within the scope of protection of the present invention. Therefore, the scope of protection of the present utility model patent shall be determined by the appended claims.

Claims

1. A sawing machine milling device, characterized in that: include: Support assembly (1); A clamping assembly (2), the clamping assembly (2) being arranged on the supporting assembly (1), and the clamping assembly (2) being used to clamp or loosen the profile; a first milling component (3), the first milling component (3) being arranged on the support component (1), the first milling component (3) being capable of moving relative to the support component (1) in a direction toward or away from the clamping component (2), and the first milling component (3) being used for milling profiles; A second milling assembly (4) is provided on the support assembly (1), the second milling assembly (4) can move relative to the support assembly (1) in a direction toward or away from the clamping assembly (2), and a portion of the second milling assembly (4) used for milling the profile can rotate relative to the support assembly (1).

2. The sawing machine milling device according to claim 1, characterized in that: There are multiple first milling material assemblies (3), and the multiple first milling material assemblies (3) are all arranged on the support assembly (1). Two of the multiple first milling material assemblies (3) are arranged opposite to each other and are located at the bottom of the support assembly (1), and another of the multiple first milling material assemblies (3) is located at the top of the support assembly (1). The multiple first milling material assemblies (3) can all move relative to the support assembly (1) in a direction close to or away from the clamping assembly (2), and the multiple first milling material assemblies (3) respectively process different side milling materials of the profile; and / or the second milling component (4) is located on top of the support component (1); And / or the first milling component (3) and the second milling component (4) are located on the same side of the support component (1).

3. The sawing machine milling device according to claim 1, characterized in that: The first milling component (3) comprises a first moving component (31), a second moving component (32), a third moving component (33) and a first milling part (34); the first moving component (31) is arranged on the support component (1); the first moving component (31) can move relative to the support component (1); the second moving component (32) is arranged on the first moving component (31); the second moving component (32) can move relative to the first moving component (31); the third moving component (33) is arranged on the second moving component (32); the third moving component (33) can move relative to the second moving component (32); the direction in which the third moving component (33) moves relative to the second moving component (32), the direction in which the second moving component (32) moves relative to the first moving component (31) and the direction in which the first moving component (31) moves relative to the support component (1) are all different; the first milling part (34) is arranged on the third moving component (33); and the first milling part (34) is used for milling profiles.

4. The sawing machine milling device according to claim 3, characterized in that: The first moving assembly (31) includes a first slider (311), a first bracket assembly (312), a first screw assembly (313) and a first slide rail (314), the number of the first sliders (311) is multiple, and the multiple first sliders (311) are all arranged on the support assembly (1), the first bracket assembly (312) is arranged on the first slider (311), the first screw assembly (313) is arranged on the support assembly (1), the screw nut of the first screw assembly (313) is connected to the first bracket assembly (312), the first screw assembly (313) can drive the first bracket assembly (312) and the first slider (311) to move relative to the support assembly (1), the number of the first slide rail (314) is multiple, and the multiple first slide rails (314) are all arranged on the first bracket assembly (312), and the second moving assembly (32) is arranged on the first slide rail (314) and can slide on the first slide rail (314); And / or the second moving assembly (32) includes a second slider (321), a second bracket assembly (322), a second screw assembly (323) and a second slide rail (324), the number of the second sliders (321) is multiple, and the multiple second sliders (321) are all arranged on the first moving assembly (31), the second bracket assembly (322) is arranged on the second slider (321), the second screw assembly (323) is arranged on the first moving assembly (31), the screw nut of the second screw assembly (323) is connected to the second bracket assembly (322), the second screw assembly (323) can drive the second bracket assembly (322) and the second slider (321) to move relative to the first moving assembly (31), the number of the second slide rail (324) is multiple, and the multiple second slide rails (324) are all arranged on the second bracket assembly (322), and the third moving assembly (33) is arranged on the second slide rail (324) and can slide on the second slide rail (324).

5. The sawing machine milling device according to claim 3, characterized in that: The third moving assembly (33) includes a first driving screw assembly (331), a first support plate assembly (332) and a third slider (333). There are multiple third sliders (333), and the multiple third sliders (333) are all arranged on the second moving assembly (32). The first support plate assembly (332) is arranged on the third slider (333). The first driving screw assembly (331) is arranged on the second moving assembly (32). The screw nut of the first driving screw assembly (331) is connected to the first support plate assembly (332). The first driving screw assembly (331) can drive the first support plate assembly (332) and the third slider (333) to move relative to the second moving assembly (32). And / or the direction of movement of the third movable component (33) relative to the second movable component (32), the direction of movement of the second movable component (32) relative to the first movable component (31), and the direction of movement of the first movable component (31) relative to the support component (1) are perpendicular to each other.

6. The sawing machine milling device according to claim 1, characterized in that: The second milling component (4) comprises a first movable component (41), a second movable component (42), a third movable component (43) and a second milling part (44); the first movable component (41) is arranged on the support component (1); the first movable component (41) can move relative to the support component (1); the second movable component (42) is arranged on the first movable component (41); the second movable component (42) can move relative to the first movable component (41); the third movable component (43) is arranged on the second movable component (42); The third movable component (43) can move relative to the second movable component (42); the direction in which the third movable component (43) moves relative to the second movable component (42), the direction in which the second movable component (42) moves relative to the first movable component (41), and the direction in which the first movable component (41) moves relative to the support component (1) are different; the second milling component (44) is arranged on the third movable component (43); the second milling component (44) can rotate relative to the third movable component (43); and the second milling component (44) is used for milling profiles.

7. The sawing machine milling device according to claim 6, characterized in that: The first movable assembly (41) comprises a third screw assembly (411) and a third bracket assembly (412); the third screw assembly (411) is arranged on the support assembly (1); a screw nut of the third screw assembly (411) is connected to the third bracket assembly (412); and the third screw assembly (411) is capable of driving the third bracket assembly (412) to move relative to the support assembly (1); And / or the second movable assembly (42) includes a fourth screw assembly (421) and a fourth bracket assembly (422), the fourth screw assembly (421) is arranged on the first movable assembly (41), the screw nut of the fourth screw assembly (421) is connected to the fourth bracket assembly (422), and the fourth screw assembly (421) can drive the fourth bracket assembly (422) to move relative to the first movable assembly (41).

8. The sawing machine milling device according to claim 6, characterized in that: The third movable assembly (43) includes a second driving screw assembly (431) and a second support plate assembly (432), wherein the second driving screw assembly (431) is arranged on the second movable assembly (42), the screw nut of the second driving screw assembly (431) is connected to the second support plate assembly (432), and the second driving screw assembly (431) can drive the second support plate assembly (432) to move relative to the second movable assembly (42); And / or the direction in which the third movable component (43) moves relative to the second movable component (42), the direction in which the second movable component (42) moves relative to the first movable component (41), and the direction in which the first movable component (41) moves relative to the support component (1) are perpendicular to each other.

9. The sawing machine milling device according to claim 1, characterized in that: The clamping assembly (2) comprises a supporting portion (21), a first clamping portion (22) and a second clamping portion (23); the supporting portion (21) is arranged on the supporting assembly (1); the supporting portion (21) is used to support the profile; the first clamping portion (22) and the second clamping portion (23) are both arranged on the supporting portion (21); the portion of the first clamping portion (22) used to clamp or release the profile can be moved relative to the supporting portion (21) in a direction closer to or away from the profile; the portion of the second clamping portion (23) used to clamp or release the profile can be moved relative to the supporting portion (21) in a direction closer to or away from the profile; the first clamping portion (22) and the second clamping portion (23) can be used to clamp different sides of the profile, respectively.

10. The sawing machine milling device according to claim 1, characterized in that: The support assembly (1) comprises a first support frame (11), a second support frame (12) and a third support frame (13); the second support frame (12) and the third support frame (13) are both arranged on the first support frame (11); the second support frame (12) and the third support frame (13) are respectively located at two ends of the first support frame (11); the number of the first milling material assemblies (3) is multiple, and the multiple first milling material assemblies (3) are arranged on the first support frame (11) and / or the third support frame (13); the second milling material assembly (4) is arranged on the second support frame (12); And / or further comprises a scoring assembly (5), wherein the number of the scoring assemblies (5) is multiple, one of the multiple scoring assemblies (5) is arranged on the first milling material assembly (3), and another of the multiple scoring assemblies (5) is arranged on the second milling material assembly (4).

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