Automatic channel steel machining device

Abstract

The utility model discloses an automatic channel steel machining device. Comprising a feeding module and a machining module, the machining module comprises a machining frame and a machining assembly arranged on the machining frame, the machining assembly comprises a machining feeding mechanism and machining mechanisms symmetrically arranged front and back, and each machining mechanism comprises a clamp module, a bearing plate and a machining device. The bearing plate and the clamp module are both located on the inner side of the machining device, a bottom plate is arranged at the bottom of the machining mechanism located on the rear side, a machining driver is arranged on the machining frame, a first notch is formed in the left side of the top of the bearing plate, and a second notch is formed in the right side of the top of the bearing plate. And the processor is used for processing the corresponding end of the channel steel in the second notch. The channel steel machining device is easy and convenient to operate, capable of automatically feeding, machining and discharging channel steel, high in machining precision and high in machining efficiency.

Description

TECHNICAL FIELD

[0001] The utility model relates to channel steel processing technical field especially relates to a kind of automatic channel steel processing device. BACKGROUND

[0002] Channel steel is very widely used in existing society, channel steel needs to be processed before use, and under prior art, manual operation instrument is relied on to process channel steel, cannot ensure the processing efficiency and processing precision of channel steel, and in most cases, channel steel is fed to processing instrument by hand before processing, and worker is easy to feel tired after long time or frequent feeding, further leading to low processing efficiency. SUMMARY

[0003] The utility model discloses a kind of automatic channel steel processing device to solve the above technical problems, can automatically feed, process, discharge channel steel, processing precision is high and processing efficiency is high.

[0004] To solve the above problems, the utility model adopts the following technical solutions to be realized:

[0005] A kind of automatic channel steel processing device of the utility model, including feeding module and processing module, the processing module includes processing frame and the processing assembly being set on processing frame, the processing assembly includes processing feeding mechanism and the processing mechanism being set symmetrically before and after, the processing mechanism includes fixture module, bearing plate and processor, the bearing plate and fixture module are all located in the inside of processor, bottom of processing mechanism located rear side is equipped with bottom plate, processing drive is equipped on the processing frame, the processing drive is used to drive bottom plate to move before and after along processing frame, first gap is equipped on the left side of bearing plate top, second gap is equipped on the right side of bearing plate top, the processing feeding mechanism is used to send single channel steel in first gap to second gap, and channel steel in second gap is discharged, the fixture module is used to clamp channel steel in second gap, the processor is used to process the corresponding end of channel steel in second gap, the feeding module is used to transport single channel steel to first gap.

[0006] In the scheme, feeding module transports single channel steel to first gap, and then processing feeding mechanism sends single channel steel in first gap to second gap to make processor process the corresponding end of channel steel, and discharge processed channel steel, can automatically complete processing, feeding, discharge of channel steel, improve processing precision, processing efficiency and reduce labor intensity.

[0007] As preferred, the processing feeding mechanism is located between the two bearing plates, and comprises a first driver and a material supporting platform, the first driver is used to drive the material supporting platform to move left and right along the top of the processing frame, the top of the material supporting platform is provided with a material supporting module, and the material supporting module is used to drive the channel steel in the first gap and the second gap to rise and fall.

[0008] As preferred, the material supporting module comprises symmetrically arranged lifting mechanisms in front and back, the lifting mechanisms comprise a second driver and a lifting plate, the second driver is used to drive the lifting plate to rise and fall, the top of the lifting plate is symmetrically provided with lifting blocks left and right, the top of the lifting block is provided with a receiving groove for accommodating the channel steel, the right side of the bearing plate is provided with an ejection plate, the ejection plate is located at the right side of the second gap, the ejection plate is inclined downward from left to right, and the spacing between the two receiving grooves is equal to the spacing between the first gap and the second gap.

[0009] As preferred, the clamp module comprises a clamp connecting plate, the clamp connecting plate is arranged between the bearing plate and the processing device, the clamp connecting plate is located at the right side of the second gap, the top of the clamp connecting plate is provided with a third driver and a clamp block, the third driver is used to drive the clamp block to move towards and away from the second gap, and the bottom of the clamp block is provided with a clamping gap matched with the channel steel at the position corresponding to the second gap.

[0010] The channel steel falls into the second gap, the third driver drives the clamp block to move towards the second gap, and during the movement of the clamp block, the right upper corner of the channel steel in the second gap gradually extends into the clamping gap in the bottom of the clamp block until the channel steel is clamped by the clamp block, and at this time, the single channel steel to be processed is fixed in the second gap.

[0011] As preferred, the processing device comprises a processing base plate, a processing platform and a fourth driver, the fourth driver located at the front side is used to drive the processing base plate located at the front side to move left and right along the top of the processing frame, the fourth driver located at the rear side is used to drive the processing base plate located at the rear side to move left and right along the top of the bottom plate, the processing platform is located above the processing base plate, the fifth driver is arranged on the processing base plate, the fifth driver is used to drive the processing platform to move up and down, and the processing platform is further provided with a processing machine on the top of the inner side, and the processing assembly further comprises a positioning mechanism, the positioning mechanism comprises a positioning driver and symmetrically arranged positioning blocks in front and back, the positioning blocks correspond to the first gaps one by one and are located outside the corresponding first gaps, and the positioning driver is used to drive the positioning blocks at the rear side to move towards and away from the positioning blocks at the front side.

[0012] After the channel steel is fixed, the fourth driver drives the processing base plate to move left and right along the bottom plate, and the fifth driver drives the processing platform to move up and down along the processing base plate, so that the processing machine processes the corresponding end of the channel steel.

[0013] As preferred, the feeding module comprises a limiting assembly, a material moving assembly and a material lifting assembly, the material lifting assembly comprises a first pushing material module, a material lifting module and a material lifting frame, the material lifting frame is arranged in a front-rear direction, a first conveying belt for conveying the channel steel is arranged on the material lifting frame, the first conveying belt is arranged in a front-rear direction, the material lifting module comprises a material lifting driving mechanism and two material lifting blocks, the two material lifting blocks are symmetrically arranged on the front and rear sides of the first conveying belt, the material lifting driving mechanism is used to drive the two material lifting blocks to synchronously ascend / descend, the first pushing material module is used to push the single channel steel lifted by the two material lifting blocks into the first gap, the material moving assembly is used to convey the single channel steel onto the first conveying belt, the limiting assembly is arranged above the first conveying belt, the limiting assembly comprises limiting mechanisms symmetrically arranged in front and back, the limiting mechanisms correspond to the bearing plates one by one, the limiting mechanisms are connected with the corresponding bearing plates through connecting structures, the limiting mechanisms comprise first limiting strips and second limiting strips, the two first limiting strips are used to limit the front and rear ends of the channel steel, and the two second limiting strips are used to limit the right side of the channel steel.

[0014] As preferred, the first pushing material module comprises first pushing material mechanisms arranged side by side in front and back, the first pushing material mechanisms comprise first pushing material blocks and first pushing material drivers, the first pushing material drivers are used to drive the first pushing material blocks to move left and right, the front side of the material lifting frame is provided with a first channel steel blocking block for blocking the channel steel, the first channel steel blocking block is vertically arranged, and a gap for the side material lifting block to pass through is formed between the first channel steel blocking block and the material lifting frame.

[0015] As preferred, the material moving assembly comprises two material moving frames symmetrically arranged left and right, the material moving frames are arranged in a front-rear direction, a second conveying belt for conveying the channel steel is arranged on the material moving frames, the second conveying belt is arranged in a front-rear direction, the second conveying belt on the right side is arranged on the rear side of the first conveying belt, a guide inclined plate is arranged on the top left side of the second conveying belt on the right side, the guide inclined plate is inclined to the right from back to front, a material passing temporary storage module for temporarily storing the channel steel is arranged between the two material moving frames, an extension plate is arranged on the side of the material moving frame corresponding to the material passing temporary storage module, a second pushing material module is arranged on the material moving frame on the left side, a second channel steel blocking block for blocking the channel steel is arranged on the front side of the material moving frame on the left side, the second pushing material module comprises second pushing material mechanisms arranged side by side in front and back, the second pushing material mechanisms are arranged above the left side of the second conveying belt on the left side, the second pushing material mechanisms comprise second pushing material blocks and second pushing material drivers, the second pushing material drivers are used to drive the second pushing material blocks to move left and right.

[0016] Preferably, the overstock temporary storage module comprises temporary storage racks arranged symmetrically in front and back, the temporary storage racks are arranged in left and right directions, the temporary storage racks are provided with third conveying belts for conveying the channel steel, the third conveying belts are arranged in left and right directions, a plurality of channel steel partition plates are arranged on the third conveying belts at intervals, the right ends of the temporary storage racks are provided with third pushing mechanisms, the third pushing mechanisms comprise bases and base drives, the base drives are used for driving the bases to move forward and backward, the bases are provided with driving push blocks and sixth drives, and the sixth drives are used for driving the driving push blocks to move left and right along the bases.

[0017] The third conveying belts drive all the channel steels thereon to move to the right side of the material moving frame, when the channel steels move to the rightmost ends of the two temporary storage racks, the base drive drives the base to move inward, the sixth drive drives the driving push block to move right along the base, the rightmost channel steels are pushed to the second conveying belt on the material moving frame on the right side, and then the sixth drive is reset to wait for the next channel steel to move to the rightmost ends of the two temporary storage racks.

[0018] Preferably, the processing base plate is further provided with a waste discharge groove, the waste discharge groove is inclined downward from left to right, and the waste discharge groove is located directly below the processing position of the processing machine.

[0019] The feeding module can automatically feed the channel steel to the processing module for processing, thereby reducing the labor intensity of workers; the processing module can automatically process the two ends of the channel steel, thereby improving the processing efficiency and the processing precision; and the limiting assembly can ensure that the channel steel does not fall off the two lifting blocks when being lifted. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 is a structural schematic view of the utility model;

[0021] Figure 2 is a structural schematic view of the processing module in the utility model;

[0022] Figure 3 is Figure 2 is an enlarged view of part A in the utility model;

[0023] Figure 4 is Figure 2 is an enlarged view of part B in the utility model;

[0024] Figure 5 is Figure 2 is an enlarged view of part C in the utility model;

[0025] Figure 6 is a structural schematic view of the lifting assembly in the utility model;

[0026] Figure 7 is Figure 6 is an enlarged view of part D in the utility model;

[0027] Figure 8 This is a schematic diagram of the material transfer component in this utility model;

[0028] Figure 9 yes Figure 8 A magnified view of a section at point E in the middle.

[0029] In the diagram: 1. Feeding module; 11. Channel steel; 2. Processing module; 21. Processing frame; 211. Processing driver; 22. Bearing plate; 221. First notch; 222. Second notch; 23. First drive; 231. Material support platform; 24. Lifting mechanism; 241. Lifting plate; 242. Lifting block; 2421. Receiving slot; 25. Discharge plate; 3. Fixture connecting plate; 31. Third driver; 32. Fixture block; 321. Clamping notch; 4. Processing base plate; 41. Processing platform; 42. Fourth driver; 43. Fifth driver; 44. Processing machine; 45. Positioning driver; 46. Positioning block; 47. Base plate; 5. Limiting component; 51. First limiting strip; 52. 6. Second limiting bar, 6. Transfer assembly, 61. Transfer rack, 611. Second conveyor belt, 62. Guide sloping plate, 63. Extension plate, 64. Second channel steel stop block, 65. Second pushing mechanism, 651. Second pushing block, 652. Second pushing driver, 7. Lifting assembly, 71. Lifting rack, 72. First conveyor belt, 73. Lifting block, 731. First pushing module, 7311. First pushing block, 7312. First pushing driver, 732. Lifting drive mechanism, 74. First channel steel stop block, 8. Temporary storage rack, 81. Third conveyor belt, 82. Channel steel partition plate, 83. Base, 84. Base driver, 85. Drive push block, 86. Sixth driver, 9. Waste discharge trough. Detailed Implementation

[0030] The technical solution of this utility model will be further described in detail below through embodiments and in conjunction with the accompanying drawings.

[0031] Example: An automated channel steel processing device according to this example, such as Figures 1 to 9 As shown, the device includes a feeding module 1 and a processing module 2. The processing module 2 includes a processing frame 21 and processing components mounted on the processing frame 21. The processing components include a processing feeding mechanism and a processing mechanism symmetrically arranged at the front and rear. The processing mechanism includes a clamping module, a support plate 22, and a processor. The support plate 22 and the clamping module are both located inside the processor. The bottom of the processing mechanism located at the rear is provided with a base plate 47. The processing frame 21 is provided with a processing driver 211, which is used to drive the base plate 47 to move back and forth along the processing frame 21. The top left side of the support plate 22 is provided with a first notch 221, and the top right side of the support plate 22 is provided with a second notch 222.

[0032] The machining feeding mechanism is located between the two bearing plates 22, and comprises a first driver 23 and a material supporting platform 231. The first driver 23 is used to drive the material supporting platform 231 to move left and right along the top of the machining rack 21. The material supporting platform 231 is provided with a material supporting module on the top. The material supporting module comprises a lifting mechanism 24 which is symmetrically arranged front and back. The lifting mechanism 24 comprises a second driver and a lifting plate 241. The second driver is used to drive the lifting plate 241 to rise and fall. The lifting plate 241 is provided with lifting blocks 242 which are symmetrically arranged left and right on the top. The lifting blocks 242 are provided with accommodating grooves 2421 on the top for accommodating the channel steel 11. The bearing plate 22 is provided with a discharging plate 25 on the right side. The discharging plate 25 is located on the right side of the second gap 222 and is inclined downward from left to right. The distance between the two accommodating grooves 2421 is equal to the distance between the first gap 221 and the second gap 222.

[0033] The clamp module comprises a clamp connecting plate 3 which is arranged between the bearing plate 22 and the machining device. The clamp connecting plate 3 is located on the right side of the second gap 222. The clamp connecting plate 3 is provided with a third driver 31 and a clamp block 32 on the top. The third driver 31 is used to drive the clamp block 32 to move close to and away from the second gap 222. The clamp block 32 is provided with a clamping gap 321 which matches the channel steel on the bottom corresponding to the position of the second gap 222.

[0034] The machining device comprises a machining base plate 4, a machining platform 41 and a fourth driver 42. The fourth driver 42 located on the front side is used to drive the machining base plate 4 located on the front side to move left and right along the top of the machining rack 21. The fourth driver 42 located on the back side is used to drive the machining base plate 4 located on the back side to move left and right along the top of the bottom plate 47. The machining platform is located above the machining base plate 4. The machining base plate 4 is provided with a fifth driver 43. The fifth driver 43 is used to drive the machining platform 41 to move up and down. The machining platform 41 is further provided with a machining machine 44 on the inside top. The machining assembly further comprises a positioning mechanism. The positioning mechanism comprises a positioning driver 45 and positioning blocks 46 which are symmetrically arranged front and back. The positioning blocks 46 correspond to the first gaps 221 one by one and are located on the outside corresponding to the first gaps 221. The positioning driver 45 is used to drive the positioning blocks 46 on the back side to move close to and away from the positioning blocks 46 on the front side.

[0035] The feeding module 1 comprises a limiting assembly 5, a material moving assembly 6 and a material lifting assembly 7, the material lifting assembly 7 comprises a first pushing material module 731, a material lifting module and a material lifting frame 71, the material lifting frame 71 is arranged in a front-rear direction, the material lifting frame 71 is provided with a first conveying belt 72 for conveying the channel steel 11, the first conveying belt 72 is arranged in a front-rear direction, the material lifting module comprises a material lifting driving mechanism 732 and two material lifting blocks 73, the two material lifting blocks 73 are symmetrically arranged on the front and rear sides of the first conveying belt 72, the material lifting driving mechanism 732 is used for driving the two material lifting blocks 73 to synchronously ascend / descend, the first pushing material module 731 is used for pushing the single channel steel 11 lifted by the two material lifting blocks 73 into the first gap 221, the limiting assembly 5 is arranged above the first conveying belt 72, the limiting assembly 5 comprises limiting mechanisms symmetrically arranged in front and back, the limiting mechanisms are in one-to-one correspondence with the bearing plates 22, the limiting mechanisms are connected with the corresponding bearing plates 22 through connecting structures, the limiting mechanism comprises a first limiting strip 51 and a second limiting strip 52 arranged on the right side of the first limiting strip 51, the two first limiting strips 51 are used for limiting the front and rear ends of the channel steel, and the two second limiting strips 52 are used for limiting the right side of the channel steel.

[0036] The first pushing material module 731 comprises first pushing material mechanisms arranged side by side in front and back, the first pushing material mechanism comprises a first pushing material block 7311 and a first pushing material driver 7312, the first pushing material driver 7312 is used for driving the first pushing material block 7311 to move left and right, the front side of the material lifting frame 71 is provided with a first channel steel block 74 for blocking the channel steel 11, the first channel steel block 74 is vertically arranged, and there is a gap between the first channel steel block 74 and the material lifting frame 71 for the material lifting block 73 on the side to pass through.

[0037] The material moving assembly 6 comprises two material moving frames 61 symmetrically arranged left and right, the material moving frame 61 is arranged in a front-rear direction, the material moving frame 61 is provided with a second conveying belt 611 for conveying the channel steel 11, the second conveying belt 611 is arranged in a front-rear direction, the second conveying belt 611 located on the right side is arranged on the rear side of the first conveying belt 72, the top left side of the second conveying belt 611 located on the right side is provided with a guide inclined plate 62, the guide inclined plate 62 is inclined to the right from back to front, a material passing temporary storage module for temporarily storing the channel steel is arranged between the two material moving frames 61, the material moving frame 61 corresponding to one side of the material passing temporary storage module is provided with an extension plate 63, the material moving frame 61 located on the left side is provided with a second pushing material module, the front side of the material moving frame 61 located on the left side is provided with a second channel steel block 64 for blocking the channel steel 11, the second pushing material module comprises second pushing material mechanisms 65 arranged side by side in front and back, the second pushing material mechanism 65 is arranged above the left side of the second conveying belt 611 located on the left side, the second pushing material mechanism 65 comprises a second pushing material block 651 and a second pushing material driver 652, the second pushing material driver 652 is used for driving the second pushing material block 651 to move left and right.

[0038] The overstock temporary storage module comprises temporary storage racks 8 arranged symmetrically in front and back, the temporary storage racks 8 are arranged in left and right directions, the temporary storage racks 8 are provided with third conveying belts 81 for conveying the channel steels 11, the third conveying belts 81 are arranged in left and right directions, the third conveying belts 81 are provided with a plurality of channel steel partition plates 82 at intervals, the right ends of the temporary storage racks 8 are provided with third pushing mechanisms, the third pushing mechanisms comprise bases 83 and base drives 84, the base drives 84 are used for driving the bases 83 to move forward and backward, the bases 83 are provided with driving push blocks 85 and sixth drives 86, the sixth drives 86 are used for driving the driving push blocks 85 to move left and right along the bases 83.

[0039] The waste discharge groove 9 is also arranged on the processing substrate 4, the waste discharge groove 9 is inclined downward from left to right, and the waste discharge groove 9 is located directly below the processing position of the processing machine.

[0040] In the scheme, the base plate is driven by the processing drive to move forward and backward along the top of the processing frame according to the length of the channel steel, so that the processing mechanism on the rear side is moved to the appropriate position, the channel steel is placed on the second conveying belt on the left material moving frame, the second conveying belt drives all the channel steels to move forward until the front end of the channel steel on the most front side abuts against the second channel steel block, then the second pushing drive drives the second pushing block to move right to move the channel steel to the space between the two temporary storage racks, the channel steel is moved to the third conveying belt on the two temporary storage racks through the extension plate, then the second conveying belt drives all the channel steels to move forward until the next channel steel on the most front side abuts against the second channel steel block and is pushed to the third conveying belt on the two temporary storage racks by the second pushing block, and the channel steel partition plates on the third conveying belt separate the two adjacent channel steels to be processed.

[0041] The third conveying belt drives all the channel steels thereon to move to the right material moving frame, when the channel steels move to the rightmost ends of the two temporary storage racks, the base drive drives the base to move inward, the sixth drive drives the driving push block to move right along the base, so as to push the channel steel on the rightmost side to the second conveying belt on the right material moving frame, and then reset to wait for the next channel steel to move to the rightmost ends of the two temporary storage racks.

[0042] The channel steel moves to the second conveying belt on the right side, the second conveying belt on the right side drives the channel steel to move forward and makes the channel steel contact with the guide inclined plate and is adjusted, the channel steel moves to the first conveying belt on the lifting frame and abuts against the first channel steel stop block, the channel steel is in the position to be lifted, then the first conveying belt and the second conveying belt on the right side stop working, at this time, the two lifting blocks are respectively below the front and rear ends of the channel steel on the first conveying belt, the lifting driving mechanism drives the two lifting blocks to synchronously ascend, the two lifting blocks lift the single channel steel upward, the single channel steel is limited by the two first limiting strips and the two second limiting strips during the upward movement, so as to avoid disengaging from the two lifting blocks, after the two lifting blocks lift the single channel steel to the preset position, the first pushing driving mechanism drives the corresponding first pushing block to move rightward, so that the two first pushing blocks push the lifted channel steel rightward to the first gap on the top left side of the two bearing plates, at this time, the channel steel is the channel steel to be processed, the lifting driving mechanism drives the two lifting blocks to synchronously descend and reset.

[0043] The channel steel to be processed is located in the first gap on the top left side of the two bearing plates, the rear positioning block is driven by the positioning driving mechanism to move close to the front positioning block, so that the channel steel is positioned, then the first driving mechanism drives the material supporting platform to move leftward to the first position, the second driving mechanism drives the lifting plate to ascend, so that the lifting block on the left side lifts the channel steel to be processed upward, then the first driving mechanism drives the material supporting platform to move rightward to the second position, the second driving mechanism drives the lifting plate to descend, so that the channel steel to be processed descends into the second gap, the first conveying belt and the second conveying belt on the right side resume work, so as to send the subsequent channel steel to the position to be lifted, the two lifting blocks lift the channel steel, so that the channel steel is pushed into the first gap by the two first pushing blocks, and the reciprocating operation is performed.

[0044] The channel steel to be processed is lowered into the second gap, the clamp block is driven by the third driving mechanism to move to the second gap, during the movement of the clamp block, the right upper corner of the channel steel in the second gap gradually extends into the clamping gap at the bottom of the clamp block, until the channel steel is clamped by the clamp block, at this time, the channel steel to be processed is fixed in the second gap, after the channel steel to be processed is fixed, the processing machine is started, the fourth driving mechanism drives the processing base plate to move leftward and rightward along the bottom plate, the fifth driving mechanism drives the processing platform to move upward and downward along the processing base plate, so that the processing machine processes the corresponding end of the channel steel.

[0045] After the single channel steel to be processed is processed, the third driver drives the clamp block to reset, so that the channel steel is loosened, the first driver drives the material supporting platform to move to the left to the first position, the second driver drives the lifting plate to rise, so that the lifting block on the left side lifts the channel steel in the first gap upward, and the lifting block on the right side lifts the channel steel in the second gap upward, the first driver drives the material supporting platform to move to the right to the second position, the second driver drives the lifting plate to descend, so that the channel steel to be processed descends into the second gap, and the channel steel processed is lowered onto the discharging plate and discharged through the discharging plate. The scraps generated during the processing of the channel steel are discharged through the waste discharge groove.

Claims

1. An automated channel steel processing device, characterized in that: The system includes a feeding module (1) and a processing module (2). The processing module (2) includes a processing frame (21) and processing components mounted on the processing frame (21). The processing components include a processing feeding mechanism and processing mechanisms symmetrically arranged front and rear. The processing mechanisms include a clamping module, a support plate (22), and a processor. The support plate (22) and the clamping module are both located inside the processor. A base plate (47) is provided at the bottom of the processing mechanism located on the rear side. A processing driver (211) is provided on the processing frame (211). The processing driver (211) is used to drive the base plate (47) along the processing frame (21). The bearing plate (22) moves back and forth. A first notch (221) is provided on the top left side of the bearing plate (22), and a second notch (222) is provided on the top right side of the bearing plate (22). The processing and feeding mechanism is used to send a single channel steel (11) in the first notch (221) to the second notch (222) and discharge the channel steel (11) in the second notch (222). The clamping module is used to clamp the channel steel in the second notch (222). The processor is used to process the corresponding end of the channel steel (11) in the second notch (222). The feeding module is used to transport a single channel steel into the first notch (221).

2. The automated channel steel processing device according to claim 1, characterized in that: The processing and feeding mechanism is located between two support plates (22). The processing and feeding mechanism includes a first driver (23) and a material support platform (231). The first driver (23) is used to drive the material support platform (231) to move left and right along the top of the processing frame (21). The top of the material support platform (231) is provided with a material support module. The material support module is used to drive the channel steel in the first notch (221) and the second notch (222) to rise / fall.

3. The automated channel steel processing device according to claim 2, characterized in that: The material support module includes a lifting mechanism (24) symmetrically arranged at the front and rear. The lifting mechanism (24) includes a second driver and a lifting plate (241). The second driver is used to drive the lifting plate (241) to rise / fall. The top of the lifting plate (241) is symmetrically provided with lifting blocks (242). The top of the lifting blocks (242) is provided with a receiving groove (2421) for accommodating the channel steel (11). The right side of the bearing plate (22) is provided with a discharge plate (25). The discharge plate (25) is located on the right side of the second notch (222). The discharge plate (25) is inclined downward from left to right.

4. The automated channel steel processing device according to claim 1, characterized in that: The fixture module includes a fixture connecting plate (3), which is disposed between the bearing plate (22) and the processor. The fixture connecting plate (3) is located on the right side of the second notch (222). The top of the fixture connecting plate (3) is provided with a third driver (31) and a fixture block (32). The third driver (31) is used to move the fixture block (32) closer to / away from the second notch (222). The bottom of the fixture block (32) is provided with a clamping notch (321) that matches the channel steel, corresponding to the position of the second notch (222).

5. The automated channel steel processing device according to claim 4, characterized in that: The processor includes a processing substrate (4), a processing platform (41), and a fourth driver (42). The fourth driver (42) located on the front side is used to drive the processing substrate (4) located on the front side to move left and right along the top front side of the processing frame (21). The fourth driver (42) located on the rear side is used to drive the processing substrate (4) located on the rear side to move left and right along the top of the base plate (47). The processing platform is located above the processing substrate (4). A fifth driver (43) is provided on the processing substrate (4). The fifth driver (43) is used to drive the processing platform (41) to move up and down. A processing machine (44) is also provided on the top inner side of the processing platform (41). The processing assembly also includes a positioning mechanism. The positioning mechanism includes a positioning driver (45) and positioning blocks (46) arranged symmetrically in front and behind. The positioning blocks (46) correspond one-to-one with the first notch (221) and are located outside the corresponding first notch (221). The positioning driver (45) is used to drive the positioning block (46) on the rear side to move closer to / away from the positioning block (46) on the front side.

6. An automated channel steel processing device according to claim 1, 2, 3, 4, or 5, characterized in that: The feeding module (1) includes a limiting component (5), a transferring component (6), and a lifting component (7). The lifting component (7) includes a first pushing module (731), a lifting module, and a lifting frame (71). The lifting frame (71) is arranged in a front-to-back direction. The lifting frame (71) is provided with a first conveyor belt (72) for transporting the channel steel (11). The first conveyor belt (72) is arranged in a front-to-back direction. The lifting module includes a lifting drive mechanism (732) and two lifting blocks (73). The two lifting blocks (73) are symmetrically arranged on the front and rear sides of the first conveyor belt (72). The lifting drive mechanism (732) is used to drive the two lifting blocks (73) to rise / fall synchronously. The first pushing module (731) is used to push the channel steel (11) to the front and rear sides of the channel steel (11). A single channel steel (11) lifted by two lifting blocks (73) is pushed into the first notch (221). The material transfer assembly (6) is used to transport the single channel steel (11) onto the first conveyor belt (72). The limiting assembly (5) is set above the first conveyor belt (72). The limiting assembly (5) includes limiting mechanisms arranged symmetrically at the front and rear. The limiting mechanisms correspond one-to-one with the bearing plates (22). The limiting mechanisms are connected to the corresponding bearing plates (22) through a connecting structure. The limiting mechanism includes a first limiting strip (51) and a second limiting strip (52) set on the right side of the first limiting strip (51). The two first limiting strips (51) are used to limit the front and rear ends of the channel steel, and the two second limiting strips (52) are used to limit the right side of the channel steel.

7. The automated channel steel processing device according to claim 6, characterized in that: The first pushing module (731) includes a first pushing mechanism arranged in a front-to-back manner. The first pushing mechanism includes a first pushing block (7311) and a first pushing driver (7312). The first pushing driver (7312) is used to drive the first pushing block (7311) to move left and right. The front side of the lifting frame (71) is provided with a first channel steel block (74) for blocking the channel steel (11). The first channel steel block (74) is arranged vertically. There is a gap between the first channel steel block (74) and the lifting frame (71) for the lifting block (73) on this side to pass through.

8. An automated channel steel processing device according to claim 6, characterized in that: The material transfer assembly (6) includes two symmetrically arranged material transfer racks (61) running in a front-to-back direction. Each material transfer rack (61) has a second conveyor belt (611) for conveying the channel steel (11). The second conveyor belt (611) runs in a front-to-back direction. The second conveyor belt (611) on the right side is located behind the first conveyor belt (72). A guide ramp (62) is located on the top left side of the second conveyor belt (611) on the right side. The guide ramp (62) slopes to the right from back to front. A temporary material storage module for temporarily storing the channel steel is provided between the two material transfer racks (61). An extension plate (63) is provided on one side of the material storage module. A second pushing module is provided on the transfer rack (61) on the left side. A second channel steel stop block (64) for blocking the channel steel (11) is provided on the front side of the transfer rack (61) on the left side. The second pushing module includes a second pushing mechanism (65) arranged in parallel front and rear. The second pushing mechanism (65) is located on the upper left side of the second conveyor belt (611) on the left side. The second pushing mechanism (65) includes a second pushing block (651) and a second pushing driver (652). The second pushing driver (652) is used to drive the second pushing block (651) to move left and right.

9. An automated channel steel processing device according to claim 8, characterized in that: The material handling temporary storage module includes temporary storage racks (8) arranged symmetrically front and back, the temporary storage racks (8) are arranged in a left-right direction, the temporary storage racks (8) are provided with a third conveyor belt (81) for conveying channel steel (11), the third conveyor belt (81) is arranged in a left-right direction, the third conveyor belt (81) is provided with a plurality of channel steel partition plates (82) spaced apart, the right end of the temporary storage rack (8) is provided with a third pushing mechanism, the third pushing mechanism includes a base (83) and a base driver (84), the base driver (84) is used to drive the base (83) to move back and forth, the base (83) is provided with a driving push block (85) and a sixth driver (86), the sixth driver (86) is used to drive the driving push block (85) to move left and right along the base (83).

10. An automated channel steel processing device according to claim 5, characterized in that: The processing substrate (4) is also provided with a waste discharge groove (9), which is inclined downward from left to right and is located directly below the processing position of the processing machine.

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