阅读说明：本技术 一种建筑工程用型材切割设备 (Section bar cutting equipment for building engineering ) 是由 李青 于 2021-07-20 设计创作，主要内容包括：本发明涉及建筑工程切割设备技术领域,具体是涉及一种建筑工程用型材切割设备,包括：工作箱；第一支撑模块和第二支撑模块,对称设置于工作箱的内部；卸料机构,设置于工作箱的外部,第一支撑模块和第二支撑模块的受力端分别与卸料机构的两个输出端连接；切割机,位于工作箱的内部；回转气缸,切割机设置于回转气缸的输出端；切割工位驱动机构,设置于工作箱的外部,回转气缸设置于切割工位驱动机构的输出端；下压弯折组件,位于工作箱的内部；下压驱动机构,设置于工作箱的外部,下压弯折组件设置于下压驱动机构的输出端,本设备的设置,可以对槽钢进行切割,并且对切割后的槽钢进行直角弯折,统一了槽钢加工的质量和极强的实用性。(The invention relates to the technical field of constructional engineering cutting equipment, in particular to sectional material cutting equipment for constructional engineering, which comprises: a work box; the first support module and the second support module are symmetrically arranged in the working box; the unloading mechanism is arranged outside the working box, and the stress ends of the first support module and the second support module are respectively connected with two output ends of the unloading mechanism; the cutting machine is positioned inside the working box; the cutting machine is arranged at the output end of the rotary cylinder; the cutting station driving mechanism is arranged outside the working box, and the rotary cylinder is arranged at the output end of the cutting station driving mechanism; the downward pressing and bending component is positioned inside the working box; push down actuating mechanism, set up in the outside of work box, push down the subassembly of buckling and set up in push down actuating mechanism's output, the setting of this equipment can cut the channel-section steel to carry out the right angle to the channel-section steel after the cutting and buckle, unified the quality of channel-section steel processing and extremely strong practicality.)

1. A section bar cutting equipment for building engineering, characterized by comprising:

a work box (1);

the first supporting module (2) and the second supporting module (3) are symmetrically arranged in the working box (1);

the unloading mechanism (4) is arranged outside the working box (1), and the stress ends of the first supporting module (2) and the second supporting module (3) are respectively connected with two output ends of the unloading mechanism (4);

the cutting machine (5) is positioned inside the working box (1);

the cutting machine (5) is arranged at the output end of the rotary cylinder (6);

the cutting station driving mechanism (7) is arranged outside the working box (1), and the rotary cylinder (6) is arranged at the output end of the cutting station driving mechanism (7);

the downward pressing and bending assembly (8) is positioned inside the working box (1);

the pressing driving mechanism (9) is arranged outside the working box (1), and the pressing bending component (8) is arranged at the output end of the pressing driving mechanism (9).

2. A profile cutting apparatus for building engineering according to claim 1, characterized in that the first support module (2) and the second support module (3) are structurally identical, the first support module (2) comprising:

the movable rod (2 a) is arranged on one side inside the working box (1), and the movable rod (2 a) is connected with the working box (1) in a sliding mode;

the grooved wheel (2 b) is sleeved on the movable rod (2 a) and is fixedly connected with the movable rod;

and the wheel axle seat (2 c) is arranged at the output end of the discharging mechanism (4), and one end of the movable rod (2 a) is rotatably connected with the wheel axle seat (2 c).

3. A profile cutting apparatus for building engineering according to claim 1, characterized in that the discharge mechanism (4) comprises:

the bottom frame (4 a) is arranged outside the working box (1), and the top of the bottom frame (4 a) is provided with a first limiting rod (4 a 1);

the first working block (4 b) and the second working block (4 c), the first working block (4 b) and the second working block (4 c) are both connected with a first limiting rod (4 a 1) in a sliding mode, and the first supporting module (2) and the second supporting module (3) are arranged on the first working block (4 b) and the second working block (4 c) respectively;

and the second working block (4 c) is arranged on the bottom frame (4 a), and the output end of the second working block (4 c) is in transmission connection with the first working block (4 b) and the second working block (4 c).

4. A profile cutting apparatus for building engineering according to claim 3, characterized in that the counter-drive assembly (4 d) comprises:

the first threaded rod (4 d 1) is arranged on the underframe (4 a), two sections of opposite threads are arranged on the first threaded rod (4 d 1), and the two sections of threads are respectively in threaded connection with the first working block (4 b) and the second working block (4 c);

and the first servo motor (4 d 2) is arranged on the bottom frame (4 a), and the output end of the opposite driving component (4 d) is connected with the stress end of the first threaded rod (4 d 1).

5. A profile cutting apparatus for building engineering according to claim 1, characterized in that the cutting station drive mechanism (7) comprises:

a first fixing frame (7 a) positioned outside the work box (1);

the first cylinder (7 b) is arranged on the first fixing frame (7 a) and is fixedly connected with the first fixing frame;

the first push plate (7 c) is arranged at the output end of the first air cylinder (7 b), the first push plate (7 c) is positioned inside the working box (1), the rotary air cylinder (6) is arranged on one surface of the first push plate (7 c), the other surface of the first push plate (7 c) is symmetrically provided with a first guide rod (7 c 1), and the first guide rod (7 c 1) is in sliding connection with the first fixing frame (7 a) through the working box (1);

the linear driver (7 d) is arranged outside the working box (1), and the first fixing frame (7 a) is arranged at the output end of the linear driver (7 d).

6. A profile cutting apparatus for building engineering according to claim 5, characterized in that the linear drive (7 d) comprises:

a base (7 d 1) which is arranged outside the work box (1) and is fixedly connected with the work box;

the first synchronizing wheel (7 d 2) and the second synchronizing wheel (7 d 3) are respectively arranged at two ends of the base (7 d 1), the first synchronizing wheel (7 d 2) and the second synchronizing wheel (7 d 3) are rotatably connected with the base (7 d 1), and the first synchronizing wheel (7 d 2) and the second synchronizing wheel (7 d 3) are in transmission connection through a synchronous belt;

the sliding block (7 d 4), the sliding block (7 d 4) and the base (7 d 1) are connected in a sliding mode, the stress end of the sliding block (7 d 4) is connected with the synchronous belt, and the first fixing frame (7 a) is arranged on the sliding block (7 d 4);

and the second servo motor (7 d 5) is arranged on the base (7 d 1), and the output end of the second servo motor (7 d 5) is connected with the first synchronous wheel (7 d 2).

7. A profile cutting apparatus for building engineering according to claim 1, characterized in that the push-down bending assembly (8) comprises:

the middle shaft bracket (8 a) is arranged at the output end of the downward pressing driving mechanism (9) and is fixedly connected with the output end;

the first hinge plate (8 b) and the second hinge plate (8 c) are respectively arranged on two sides of the middle shaft bracket (8 a), and the first hinge plate (8 b) and the second hinge plate (8 c) are hinged with the middle shaft bracket (8 a);

and the torsion springs (8 d) are respectively arranged at the hinged parts of the first hinged plate (8 b) and the second hinged plate (8 c).

8. A profile cutting apparatus for building engineering according to claim 1, characterized in that the push-down driving mechanism (9) comprises:

the material fork frame (9 a) is positioned inside the working box (1), one end of the material fork frame (9 a) is connected with the stress end of the downward pressing and bending component (8), and the other end of the material fork frame (9 a) is symmetrically provided with second guide rods (9 a 1);

the second fixing frame (9 b) is positioned outside the working box (1), a second air cylinder (9 b 1) is arranged on the second fixing frame (9 b), the output end of the second air cylinder (9 b 1) is connected with the stress end of the fork material frame (9 a), and a second guide rod (9 a 1) penetrates through the second fixing frame (9 b) and is in sliding connection with the second fixing frame;

the longitudinal movement linkage component (9 c) is arranged outside the working box (1), and the output end of the longitudinal movement linkage component (9 c) is connected with the second fixing frame (9 b);

and the longitudinal movement driving component (9 d) is arranged at the non-working part of the longitudinal movement linkage component (9 c), and the output end of the longitudinal movement driving component (9 d) is connected with the stress end of the longitudinal movement linkage component (9 c).

9. The profile cutting apparatus for construction engineering according to claim 8, wherein the longitudinal movement link assembly (9 c) comprises:

the second fixing frame (9 b) is arranged at the top of the longitudinal moving plate (9 c 1);

the second threaded rod (9 c 2) and the second limiting rod (9 c 3) are symmetrically arranged at the bottom of the longitudinal moving plate (9 c 1);

support frame (9 c 4), set up in the outside of work box (1), support frame (9 c 4) are all run through to second threaded rod (9 c 2) and second gag lever post (9 c 3), move drive assembly (9 d) and set up on support frame (9 c 4) in the vertical direction, move the output and the second threaded rod (9 c 2) of drive assembly (9 d) in the vertical direction and be connected.

10. A profile cutting apparatus for building engineering according to claim 9, characterized in that the longitudinal movement drive assembly (9 d) comprises:

the third servo motor (9 d 1) is arranged on the support frame (9 c 4) and is fixedly connected with the support frame;

the belt pulley (9 d 2) is arranged at the output end of the third servo motor (9 d 1);

and the nut (9 d 3) is sleeved on the second threaded rod (9 c 2) and is in threaded connection with the second threaded rod, the nut (9 d 3) is rotatably connected with the support frame (9 c 4), and the belt pulley (9 d 2) is in transmission connection with the nut (9 d 3) through a belt.

Technical Field

The invention relates to the technical field of constructional engineering cutting equipment, in particular to sectional material cutting equipment for constructional engineering.

Background

The channel-section steel often need carry out special right angle bending in the use of building engineering, but this kind of operation often needs the workman to carry out manual measurement and cutting and accomplishes, because manual operation's inaccurate shape and need certain experience, so often the right angle bending of channel-section steel that the novice can't be accurate, and the old man also probably goes wrong the condition.

In view of the above, there is a need for a profile cutting apparatus for construction engineering.

Disclosure of Invention

In order to solve the technical problem, the sectional material cutting equipment for the constructional engineering is provided.

In order to achieve the above purposes, the technical scheme adopted by the invention is as follows:

a profile cutting apparatus for construction engineering, comprising:

a work box;

the first support module and the second support module are symmetrically arranged in the working box;

the unloading mechanism is arranged outside the working box, and the stress ends of the first support module and the second support module are respectively connected with two output ends of the unloading mechanism;

the cutting machine is positioned inside the working box;

the cutting machine is arranged at the output end of the rotary cylinder;

the cutting station driving mechanism is arranged outside the working box, and the rotary cylinder is arranged at the output end of the cutting station driving mechanism;

the downward pressing and bending component is positioned inside the working box;

and the pressing driving mechanism is arranged outside the working box, and the pressing bending assembly is arranged at the output end of the pressing driving mechanism.

Preferably, the first support module and the second support module have the same structure, and the first support module includes:

the movable rod is arranged on one side of the inside of the working box and is in sliding connection with the working box;

the grooved wheel is sleeved on the movable rod and is fixedly connected with the movable rod;

and the wheel axle seat is arranged at the output end of the discharging mechanism, and one end of the movable rod is rotatably connected with the wheel axle seat.

Preferably, the discharge mechanism comprises:

the bottom frame is arranged outside the working box, and a first limiting rod is arranged at the top of the bottom frame;

the first working block and the second working block are both connected with the first limiting rod in a sliding mode, and the first supporting module and the second supporting module are respectively arranged on the first working block and the second working block;

and the second working block is arranged on the bottom frame, and the output end of the second working block is in transmission connection with the first working block and the second working block.

Preferably, the counter drive assembly comprises:

the first threaded rod is arranged on the underframe and is provided with two sections of opposite threads which are respectively in threaded connection with the first working block and the second working block;

and the first servo motor is arranged on the bottom frame, and the output end of the opposite driving component is connected with the stress end of the first threaded rod.

Preferably, the cutting station drive mechanism comprises:

the first fixing frame is positioned outside the working box;

the first cylinder is arranged on the first fixing frame and is fixedly connected with the first fixing frame;

the first push plate is arranged at the output end of the first air cylinder, the first push plate is positioned in the working box, the rotary air cylinder is arranged on one surface of the first push plate, first guide rods are symmetrically arranged on the other surface of the first push plate, and the first guide rods are in sliding connection with the first fixing frame through the working box;

the linear driver is arranged outside the working box, and the first fixing frame is arranged at the output end of the linear driver.

Preferably, the linear actuator includes:

the base is arranged outside the working box and fixedly connected with the working box;

the first synchronizing wheel and the second synchronizing wheel are respectively arranged at two ends of the base, are rotatably connected with the base and are in transmission connection through a synchronous belt;

the sliding block is connected with the base in a sliding mode, the stressed end of the sliding block is connected with the synchronous belt, and the first fixing frame is arranged on the sliding block;

and the second servo motor is arranged on the base, and the output end of the second servo motor is connected with the first synchronous wheel.

Preferably, the press bending assembly comprises:

the middle shaft bracket is arranged at the output end of the downward pressing driving mechanism and is fixedly connected with the output end of the downward pressing driving mechanism;

the first hinged plate and the second hinged plate are respectively arranged on two sides of the middle shaft bracket and are hinged with the middle shaft bracket;

and the torsional springs are respectively arranged at the hinged positions of the first hinged plate and the second hinged plate.

Preferably, the push-down driving mechanism includes:

the material fork frame is positioned inside the working box, one end of the material fork frame is connected with the stress end of the downward pressing and bending component, and the other end of the material fork frame is symmetrically provided with a second guide rod;

the second fixing frame is positioned outside the working box, a second air cylinder is arranged on the second fixing frame, the output end of the second air cylinder is connected with the stress end of the fork material frame, and a second guide rod penetrates through the second fixing frame and is in sliding connection with the second fixing frame;

the longitudinal movement linkage assembly is arranged outside the working box, and the output end of the longitudinal movement linkage assembly is connected with the second fixing frame;

and the longitudinal movement driving component is arranged at the non-working part of the longitudinal movement linkage component, and the output end of the longitudinal movement driving component is connected with the stress end of the longitudinal movement linkage component.

Preferably, the longitudinal movement linkage assembly includes:

the second fixing frame is arranged at the top of the longitudinal moving plate;

the second threaded rod and the second limiting rod are symmetrically arranged at the bottom of the longitudinal moving plate;

the support frame sets up in the outside of work box, and second threaded rod and second gag lever post all run through the support frame, indulge and move drive assembly and set up on the support frame, indulge the output that moves drive assembly and be connected with the second threaded rod.

Preferably, the channel steel, the longitudinal movement driving component comprises:

the third servo motor is arranged on the support frame and is fixedly connected with the support frame;

the belt pulley is arranged at the output end of the third servo motor;

the nut is sleeved on the second threaded rod and is in threaded connection with the second threaded rod, the nut is rotatably connected with the support frame, and the belt pulley is in transmission connection with the nut through a belt.

Compared with the prior art, the invention has the beneficial effects that:

1. according to the invention, through the arrangement of the device, channel steel can be cut, and the cut channel steel is bent at a right angle, so that the processing quality and the strong practicability of the channel steel are unified.

2. According to the invention, through the arrangement of the first support module and the second support module, the channel steel can be supported and can rotate in a matching manner in the bending process.

3. According to the invention, through the arrangement of the discharging mechanism, the first supporting module and the second supporting module can be driven to be away from each other in time after the channel steel is bent, so that the right-angle channel steel falls out.

4. According to the invention, through the arrangement of the rotary cylinder and the cutting station driving mechanism, the cutting machine can be driven to cut at two positions, and the cutting quality is unified through the control of the fixed distance and the angle.

5. According to the invention, through the arrangement of the pressing and bending component and the pressing driving mechanism, the notch of the channel steel can be bent at a right angle.

Drawings

FIG. 1 is a schematic perspective view of the present invention;

FIG. 2 is a top view of the internal structure of the present invention;

FIG. 3 is a front view of the present invention;

FIG. 4 is a sectional view taken along line A-A of FIG. 3;

FIG. 5 is a first schematic perspective view of the cutting machine, the rotary cylinder and the cutting station driving mechanism of the present invention;

FIG. 6 is a schematic perspective view of a second embodiment of the cutting machine, the rotary cylinder and the cutting station driving mechanism of the present invention;

FIG. 7 is a side view of the present invention;

FIG. 8 is a sectional view taken along line B-B of FIG. 7;

FIG. 9 is a schematic perspective view of the press bending assembly and press driving mechanism of the present invention;

FIG. 10 is a front view of the press bending assembly and press drive mechanism of the present invention.

The reference numbers in the figures are:

1-a work box;

2-a first support module; 2 a-a movable rod; 2 b-a sheave; 2 c-axle seat;

3-a second support module;

4-a discharging mechanism; 4 a-chassis; 4a1 — first stop bar; 4b — a first work block; 4 c-a second work block; 4 d-counter drive assembly; 4d1 — first threaded rod; 4d2 — first servomotor;

5-a cutting machine;

6-a rotary cylinder;

7-a cutting station driving mechanism; 7 a-a first mount; 7 b-a first cylinder; 7 c-a first push plate; 7c1 — first guide bar; 7 d-linear drive; 7d 1-base; 7d2 — first synchronous wheel; 7d3 — second synchronizing wheel; 7d4 — slider; 7d 5-second servomotor;

8-pressing the bending component; 8 a-middle shaft bracket; 8 b-first hinge plate; 8 c-a second hinge plate; 8 d-torsion spring;

9-a down-pressure drive mechanism; 9 a-a fork rack; 9a1 — second guide bar; 9 b-a second mount; 9b 1-second cylinder; 9 c-a longitudinal movement linkage assembly; 9c 1-longitudinal movement plate; 9c 2-second threaded rod; 9c 3-second stop bar; 9c 4-scaffold; 9 d-a longitudinal movement drive assembly; 9d 1-third servomotor; 9d 2-pulley; 9d 3-nut;

10-channel steel.

Detailed Description

The following description is presented to disclose the invention so as to enable any person skilled in the art to practice the invention. The preferred embodiments in the following description are given by way of example only, and other obvious variations will occur to those skilled in the art.

In order to solve the technical problem that the channel steel cannot be bent consistently by manual work, as shown in fig. 1 and 2, the following technical scheme is provided:

a profile cutting apparatus for construction engineering, comprising:

a work box 1;

the first supporting module 2 and the second supporting module 3 are symmetrically arranged inside the working box 1;

the unloading mechanism 4 is arranged outside the working box 1, and the stress ends of the first support module 2 and the second support module 3 are respectively connected with two output ends of the unloading mechanism 4;

a cutter 5 located inside the work box 1;

the cutting machine 5 is arranged at the output end of the rotary cylinder 6;

the cutting station driving mechanism 7 is arranged outside the working box 1, and the rotary cylinder 6 is arranged at the output end of the cutting station driving mechanism 7;

the downward pressing and bending component 8 is positioned inside the working box 1;

the downward pressing driving mechanism 9 is arranged outside the working box 1, and the downward pressing bending component 8 is arranged at the output end of the downward pressing driving mechanism 9;

specifically, a feed inlet is formed in the side wall of the work box 1, firstly, a worker inserts channel steel into the work box 1 from the feed inlet, two ends of the channel steel entering the work box 1 are respectively lapped on the first supporting module 2 and the second supporting module 3, then the cutting machine 5 starts to work, the initial angle of the cutting machine 5 is arranged to be inclined by forty-five degrees, the cutting station driving mechanism 7 starts to work, the output end of the cutting station driving mechanism 7 pushes the rotary cylinder 6 to move, the rotary cylinder 6 pushes the cutting machine 5 to gradually approach to the middle of the channel steel and penetrate through the middle of the channel steel, the output end of the cutting machine 5 cuts off vertical surfaces on two sides of the channel steel, then the cutting station driving mechanism 7 starts to work again, the output end of the cutting station driving mechanism 7 pulls the rotary cylinder 6 to return, the rotary cylinder 6 drives the cutting machine 5 to move along with the rotary cylinder 6, the output end of the rotary cylinder 6 drives the cutting machine 5 to rotate by ninety degrees, the cutting station driving mechanism 7 starts to work, the output end of the cutting station driving mechanism 7 drives the cutting machine 5 to move through the rotary air cylinder 6, the cutting machine 5 moves horizontally and is close to the channel steel, a new cutting position and an old cutting position form a ninety degree angle, the cutting station driving mechanism 7 drives the channel steel to return after the channel steel is cut by the cutting machine 5, the triangular steel plate at the cut position of the channel steel is still adhered, a worker pulls out the triangular steel plate through the work box 1 from top to bottom through a pliers, then the pressing driving mechanism 9 starts to work, the output end of the pressing driving mechanism 9 drives the pressing bending assembly 8 to move to the upper part of the channel steel and move downwards, the pressing bending assembly 8 moving downwards presses the channel steel from a gap, the channel steel is bent into a right-angle shape, the two ends of the channel steel at the moment are still clamped on the first supporting module 2 and the second supporting module 3 respectively, discharge mechanism 4 begins work, and discharge mechanism 4's output drives first support module 2 and second respectively and supports module 3 and keep away from each other, and the right angle form channel-section steel that loses the support sees through the bottom of work box 1 and falls out, and the staff collects right angle form channel-section steel.

In order to solve the technical problem of supporting the channel steel, as shown in fig. 2, the following technical scheme is provided:

the structure of first support module 2 and second support module 3 is unanimous, and first support module 2 includes:

the movable rod 2a is arranged on one side inside the working box 1, and the movable rod 2a is connected with the working box 1 in a sliding mode;

the grooved wheel 2b is sleeved on the movable rod 2a and is fixedly connected with the movable rod;

the axle seat 2c is arranged at the output end of the discharging mechanism 4, and one end of the movable rod 2a is rotatably connected with the axle seat 2 c;

specifically, the movable rod 2a is used for supporting the grooved pulley 2b, when the output of the discharge mechanism 4 drives the first supporting module 2 and the second supporting module 3 to be away from each other, the movable rod 2a can drive the grooved pulley 2b to move along the chute on the working box 1, and through the arrangement of the axle seat 2c, when the channel steel after cutting is pressed down, the grooved pulley 2b can be matched with the bending of the channel steel to rotate.

In order to solve the technical problem of quickly taking out finished channel steel, as shown in fig. 3, the following technical scheme is provided:

the discharge mechanism 4 includes:

the underframe 4a is arranged outside the work box 1, and the top of the underframe 4a is provided with a first limiting rod 4a 1;

the first working block 4b and the second working block 4c are connected with the first limiting rod 4a1 in a sliding mode, and the first supporting module 2 and the second supporting module 3 are arranged on the first working block 4b and the second working block 4c respectively;

the second working block 4c is arranged on the bottom frame 4a, and the output end of the second working block 4c is in transmission connection with the first working block 4b and the second working block 4 c;

specifically, the discharging mechanism 4 starts to work, the output end of the opposite driving component 4d drives the first working block 4b and the second working block 4c to move away from each other along the first limiting rod 4a1, the first working block 4b and the second working block 4c drive the first supporting module 2 and the second supporting module 3 to move along with the first working block and the second working block, and the bottom frame 4a is used for fixing and supporting.

In order to solve the technical problem that the pair of the first working block 4b and the second working block 4c are close to each other and far away from each other, as shown in fig. 4, the following technical solutions are provided:

the counter drive unit 4d includes:

the first threaded rod 4d1 is arranged on the underframe 4a, two sections of opposite threads are arranged on the first threaded rod 4d1, and the two sections of threads are respectively in threaded connection with the first working block 4b and the second working block 4 c;

the first servo motor 4d2 is arranged on the bottom frame 4a, and the output end of the opposite driving component 4d is connected with the stress end of the first threaded rod 4d 1;

specifically, when the opposite driving assembly 4d starts to work, the first servo motor 4d2 drives the first threaded rod 4d1 to rotate, the first threaded rod 4d1 drives the first working block 4b and the second working block 4c to move away from each other along the first limiting rod 4a1, and the first working block 4b and the second working block 4c drive the first supporting module 2 and the second supporting module 3 to move along with the first supporting module and the second supporting module 3.

In order to solve the technical problem of triangular cutting of the channel steel by the cutting machine 5, as shown in fig. 5, the following technical scheme is provided:

the cutting station drive mechanism 7 includes:

the first fixing frame 7a is positioned outside the working box 1;

the first air cylinder 7b is arranged on the first fixing frame 7a and is fixedly connected with the first fixing frame;

the first push plate 7c is arranged at the output end of the first air cylinder 7b, the first push plate 7c is positioned in the working box 1, the rotary air cylinder 6 is arranged on one surface of the first push plate 7c, the other surface of the first push plate 7c is symmetrically provided with a first guide rod 7c1, and the first guide rod 7c1 is in sliding connection with the first fixing frame 7a through the working box 1;

the linear driver 7d is arranged outside the working box 1, and the first fixing frame 7a is arranged at the output end of the linear driver 7 d;

specifically, the cutting station driving mechanism 7 starts to work, the output end of the first cylinder 7b pushes the first push plate 7c to move, the first push plate 7c drives the cutting machine 5 to gradually approach to and pass through the channel steel through the rotary cylinder 6, the channel steel is cut through the cutting machine 5 in a working state, after the first cutting line is completed, the output end of the first cylinder 7b pulls the first push plate 7c to return, the first push plate 7c drives the cutting machine 5 to return through the rotary cylinder 6, the rotary cylinder 6 starts to work, the output end of the rotary cylinder 6 drives the cutting machine 5 to rotate ninety degrees, the linear driver 7d starts to work, the output end of the linear driver 7d drives the first fixing frame 7a to horizontally move, the output end of the cutting machine 5 faces the second cutting line position, and the output end of the first cylinder 7b pushes the first push plate 7c to move, first push pedal 7c drives cutting machine 5 through revolving cylinder 6 and is close to the channel-section steel gradually and passes, cuts the channel-section steel through cutting machine 5 that is in operating condition, and the back is accomplished to the second line of cut, and first push pedal 7c is driven to first cylinder 7 b's output and is reset, and first push pedal 7c drives cutting machine 5 and revolving cylinder 6 and resets along with it, and first guide bar 7c1 is used for guiding first push pedal 7 c's moving direction.

In order to solve the technical problem of driving the cutter 5 to move to the cutting point, as shown in fig. 6, the following technical solutions are provided:

the linear actuator 7d includes:

a base 7d1, which is arranged outside the work box 1 and is fixedly connected with the work box;

the first synchronizing wheel 7d2 and the second synchronizing wheel 7d3 are respectively arranged at two ends of the base 7d1, the first synchronizing wheel 7d2 and the second synchronizing wheel 7d3 are both rotatably connected with the base 7d1, and the first synchronizing wheel 7d2 and the second synchronizing wheel 7d3 are connected through synchronous belt transmission;

the sliding block 7d4, the sliding block 7d4 and the base 7d1 are connected in a sliding manner, the stressed end of the sliding block 7d4 is connected with the synchronous belt, and the first fixing frame 7a is arranged on the sliding block 7d 4;

the second servo motor 7d5 is arranged on the base 7d1, and the output end of the second servo motor 7d5 is connected with the first synchronous wheel 7d 2;

specifically, the linear actuator 7d starts to work, the output end of the second servo motor 7d5 drives the first synchronizing wheel 7d2 to rotate, the first synchronizing wheel 7d2 drives the sliding block 7d4 to move through the synchronous belt, the sliding block 7d4 drives the first fixing frame 7a to move along the base 7d1, and the second synchronizing wheel 7d3 is used for supporting the synchronous belt and rotates in a matched manner.

In order to solve the technical problem of the right-angle bending of the channel steel, as shown in fig. 7 and 8, the following technical scheme is provided:

push down bending component 8 includes:

the middle shaft bracket 8a is arranged at the output end of the downward pressing driving mechanism 9 and is fixedly connected with the output end;

the first hinge plate 8b and the second hinge plate 8c are respectively arranged on two sides of the middle shaft frame 8a, and the first hinge plate 8b and the second hinge plate 8c are hinged with the middle shaft frame 8 a;

the torsion springs 8d are respectively arranged at the hinged parts of the first hinged plate 8b and the second hinged plate 8 c;

specifically, the output end of the pressing driving mechanism 9 drives the middle shaft bracket 8a to descend, the middle shaft bracket 8a drives the first hinged plate 8b and the second hinged plate 8c to descend along with the middle shaft bracket, channel steel is pressed down at the gap, until the first hinged plate 8b and the first hinged plate 8b are bent, the triangular opening of the channel steel is folded to form a right angle, the second hinged plate 8c is used for pushing the first hinged plate 8b and the second hinged plate 8c to be in a horizontal state with the middle shaft bracket 8a in a non-working state, the second hinged plate 8c retracts when the stress of the second hinged plate 8c reaches the bending force of the channel steel, and the first hinged plate 8b and the second hinged plate 8c are bent along with the channel steel.

In order to solve the technical problem of bending the channel steel by pressing, as shown in fig. 9, the following technical scheme is provided:

the push-down drive mechanism 9 includes:

the material fork frame 9a is positioned inside the working box 1, one end of the material fork frame 9a is connected with the stress end of the downward pressing and bending component 8, and the other end of the material fork frame 9a is symmetrically provided with second guide rods 9a 1;

the second fixing frame 9b is positioned outside the working box 1, a second air cylinder 9b1 is arranged on the second fixing frame 9b, the output end of the second air cylinder 9b1 is connected with the stressed end of the fork material frame 9a, and the second guide rod 9a1 penetrates through the second fixing frame 9b and is in sliding connection with the second fixing frame;

the longitudinal movement linkage component 9c is arranged outside the working box 1, and the output end of the longitudinal movement linkage component 9c is connected with the second fixing frame 9 b;

the longitudinal movement driving component 9d is arranged at the non-working part of the longitudinal movement linkage component 9c, and the output end of the longitudinal movement driving component 9d is connected with the stress end of the longitudinal movement linkage component 9 c;

specifically, push down actuating mechanism 9 and begin work, the output of second cylinder 9b1 pushes down through fork work or material rest 9a and pushes down bending assembly 8 and move to the top of channel-section steel, the output that moves drive assembly 9d from beginning to end drives the stress end that moves linkage assembly 9c from beginning to end and rotates, the output that moves linkage assembly 9c from beginning to end drives second mount 9b and descends, second mount 9b drives through fork work or material rest 9a and pushes down bending assembly 8 and descend, second guide bar 9a1 is used for guiding the moving direction of fork work or material rest 9 a.

In order to solve the technical problem of driving the downward-pressing bending assembly 8 to move longitudinally, as shown in fig. 10, the following technical solutions are provided:

the vertical movement interlocking member 9c includes:

the longitudinal moving plate 9c1, the second fixing frame 9b is arranged at the top of the longitudinal moving plate 9c 1;

the second threaded rod 9c2 and the second limiting rod 9c3 are symmetrically arranged at the bottom of the longitudinal moving plate 9c 1;

the supporting frame 9c4 is arranged outside the working box 1, the second threaded rod 9c2 and the second limiting rod 9c3 penetrate through the supporting frame 9c4, the longitudinal movement driving assembly 9d is arranged on the supporting frame 9c4, and the output end of the longitudinal movement driving assembly 9d is connected with the second threaded rod 9c 2;

specifically, the longitudinal movement driving assembly 9d starts to work, the output end of the longitudinal movement driving assembly 9d drives the longitudinal movement plate 9c1 to descend through the belt pulley 9d2, the longitudinal movement plate 9c1 drives the second fixing frame 9b to descend, the second fixing frame 9b drives the downward pressing and bending assembly 8 to descend through the fork frame 9a, the second limiting rod 9c3 is used for guiding the moving direction of the longitudinal movement plate 9c1, and the supporting frame 9c4 is used for fixed supporting.

In order to solve the technical problem of longitudinal movement of the longitudinal movement plate 9c1, as shown in fig. 10, the following technical solutions are provided:

the longitudinal movement driving assembly 9d includes:

the third servo motor 9d1 is arranged on the support frame 9c4 and is fixedly connected with the support frame;

a belt pulley 9d2 arranged at the output end of the third servo motor 9d 1;

the nut 9d3 is sleeved on the second threaded rod 9c2 and is in threaded connection with the second threaded rod, the nut 9d3 is rotatably connected with the support frame 9c4, and the belt pulley 9d2 is in transmission connection with the nut 9d3 through a belt;

specifically, the longitudinal movement driving assembly 9d starts to work, the output end of the third servo motor 9d1 drives the belt pulley 9d2 to rotate, the belt pulley 9d2 drives the nut 9d3 to rotate through the belt, and the nut 9d3 drives the longitudinal movement plate 9c1 to descend through the second threaded rod 9c 2.

The invention can cut the channel steel and bend the cut channel steel at right angle through the device, unifies the processing quality and the strong practicability of the channel steel, through the arrangement of the first support module 2 and the second support module 3, the channel steel can be supported, and the first supporting module 2 and the second supporting module 3 can be driven to be away from each other in time after the channel steel is bent by the arrangement of the discharging mechanism 4 in the process of bending in cooperation with the rotation of the channel steel, so that the right-angle channel steel falls out, and through the arrangement of the rotary cylinder 6 and the cutting station driving mechanism 7, the cutting machine 5 can be driven to cut at two positions, the cutting quality is unified through the control of fixed distance and angle, through the setting of pushing down bending assembly 8 and pushing down actuating mechanism 9, can carry out the right angle to the breach department of channel-section steel and buckle.

The foregoing has described the general principles, principal features, and advantages of the invention. It will be understood by those skilled in the art that the present invention is not limited to the embodiments described above, which are merely illustrative of the principles of the invention, but that various changes and modifications may be made without departing from the spirit and scope of the invention, which fall within the scope of the invention as claimed. The scope of the invention is defined by the appended claims and equivalents thereof.