Clamping mechanism for mechanical automatic cutting equipment

Abstract

The clamping mechanism structurally comprises a clamping table, a control panel, a supporting column, a top plate and a cutting pressing device, the control panel is arranged on the surface of the front end of the clamping table and electrically connected with the clamping table, and the lower end of the supporting column is fixedly installed on the upper end face of the clamping table; in the process that the cutting pressing device descends to cut the circular pipe, the driving motor drives the driving shaft rod to rotate, the two driving wheels are driven to synchronously rotate at the two ends of the circular pipe through conveying of the conveying belt, the circular pipe placed at the upper end of the middle of the table top is rotationally guided, and the rotating circular pipe is cut through the cutting pressing device; it is ensured that when the pipe diameter of the circular pipe is large, the cutting pressing device can cut off the circular pipe at a time, and the uniformity of a cutting opening of the circular pipe is improved; and through elastic extrusion cooperation of the elastic telescopic pipe and the extrusion rod, when the cutting tool descends to cut the circular pipe, the limiting pressing plate keeps still to abut against the circular pipe, and the stability of the circular pipe in the cutting process is improved.

Description

Technical Field

[0001] The present invention relates to the field of mechanical automation technology, and more specifically, to a clamping mechanism for mechanical automation cutting equipment. Background Art

[0002] In the process of mechanical processing, the common ways of cutting plates are manual cutting, semi-automatic cutting machine cutting and CNC cutting machine cutting; manual cutting is flexible and convenient, but the quality of manual cutting is poor, the dimensional error is large, the material is wasted a lot, the workload of subsequent processing is large, and the working conditions are bad and the production efficiency is low; the contour cutting machine among the semi-automatic cutting machines has better cutting quality of the workpiece, but because it uses a cutting mold, it is not suitable for single piece, small batch and large workpiece cutting, and a clamping mechanism is needed to clamp and fix the material during cutting; However, the existing mechanical automated cutting equipment has the following deficiencies in the process of cutting and clamping round tubes using a clamping mechanism: the round tube is clamped and fixed by a mechanical clamping method and then cut. When the diameter of the round tube is large, the cutting tool cannot cut the round tube at one time and the round tube needs to be replaced and then cut a second time. The secondary cutting easily leads to an uneven cutting edge. At the same time, a large amount of material waste is generated during the cutting process. The material waste is relatively sharp and easily gets stuck in the clamping mechanism, resulting in scratches on the surface of the round tube during the next clamping of the round tube. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a clamping mechanism for mechanical automated cutting equipment, the structure of which includes a clamping table, a control panel, a support column, a top plate, and a cutting press. The front end surface of the clamping table is provided with a control panel and is electrically connected. The lower end of the support column is fixedly mounted on the upper end surface of the clamping table. The top of the support column is provided with a top plate, and a cutting press is installed in the middle of the top plate. The control panel is electrically connected to the cutting press, and the cutting press is located directly above the middle of the clamping table. The clamping table includes a table top, an extension plate, a side mechanism, and a driving mechanism. The front end surface of the table top is provided with a control panel, and the extension plate is welded to the middle above the front end of the table top. The side mechanism is fixedly mounted on the upper end surface of the table top, and the driving mechanism is installed at the upper end inside the table top. The driving mechanism is electrically connected to the control panel. The cutting press is located directly above the table top and the driving mechanism. The side mechanism is provided with four, two in a group, and distributed at the four end positions of the upper end of the table top. A transverse groove is provided in the middle of the table top, and the middle of the driving mechanism is located at the lower end inside the transverse groove in the middle of the table top.

[0004] As a further improvement of the present invention, the side mechanism includes a fixed block, a bevel baffle, a ball, a hinge plate, and a spring tube. The bottom of the fixed block and the bevel baffle are welded to the upper end surface of the table, and the fixed block and the bevel baffle are an integrated structure. A ball is provided inside the edge of the bevel baffle, and the axis of the ball is connected to the inner axis of the hinge plate. The outer end of the hinge plate is installed inside the inner end of the spring tube with a clearance fit, and the spring tube is fixedly installed inside the bevel baffle. The angle between the inner inclined surface of the bevel baffle and the table is one hundred and thirty degrees. The ball, hinge plate and spring tube are all installed inside the bevel baffle at an inclined angle, and the ball, hinge plate and spring tube are installed in the same straight line orientation.

[0005] As a further improvement of the present invention, the driving mechanism includes a motor, a driving shaft, a transmission belt, a driving wheel, and a dust suction mechanism. The motor is installed at the rear end of the table top, the motor output end is welded to the rear end of the driving shaft and rotates synchronously, the driving shaft rotates synchronously with the driving wheel through the transmission belt, the driving wheel is installed inside the upper end of the table top, the driving shaft is clearance-fitted and penetrates the lower end of the dust suction mechanism and rotates synchronously, the dust suction mechanism is located inside the transverse groove at the middle end of the table top and is through-connected, four transmission belts are provided, and two are in a group, which are respectively installed at the connection between the two driving wheels and the front and rear ends of the driving shaft.

[0006] As a further improvement of the present invention, the dust suction mechanism includes a dust collecting shell, a filter plate, a lower guide frame, a support plate, and a suction fan. The driving shaft is clearance-fitted and passes through the lower end of the dust collecting shell. The dust collecting shell is located in the transverse groove at the middle end of the table top and is through-connected. A filter plate is installed at the middle end of the dust collecting shell, and the upper end of the filter plate is connected to the lower guide frame through the support plate. The lower guide frame is located inside the upper end of the dust collecting shell. The suction fan is installed at the lower end of the dust collecting shell. The suction fan is welded to the driving shaft at the axis and rotates synchronously. The lower guide frame is composed of a plurality of laterally distributed triangular prisms, with a gap between each triangular prism, and a cavity structure with a wide top and a narrow bottom is formed between every two triangular prisms. The left and right ends and the middle part of the lower guide frame are fixedly connected to the left and right ends and the middle part of the filter plate through two support plates.

[0007] As a further improvement of the present invention, the cutting press includes a cylinder, a connecting bracket, a motor, a protective cover, a cutting tool, and a limiter. The cylinder is installed at the middle end of the top plate, and the cylinder output end is welded to the middle of the upper end of the connecting bracket. The lower end of the connecting bracket is fixed to the upper end surface of the motor, and the motor is installed outside the protective cover. The cutting tool is installed inside the protective cover, and the cutting tool rotates synchronously with the output end of the motor. The upper end of the limiter is welded to the middle of the connecting bracket, and the limiter is located outside the cutting tool. The cutting tool is located above the horizontal groove in the middle end of the table top. The limiter is located above the table top. Two horizontal baffles are provided on both sides of the lower end of the protective cover.

[0008] As a further improvement of the present invention, the limiter includes an elastic telescopic tube, an extrusion rod, a limiting pressure plate, a telescopic hose, a linkage plate, and a pulley. The upper end of the elastic telescopic tube is welded to the middle part of the connecting bracket, and the upper end of the extrusion rod is passed through the lower end of the elastic telescopic tube by a clearance fit. The lower end of the extrusion rod is welded to the middle part of the upper end of the limiting pressure plate. The limiting pressure plate is located on the outside of the cutting tool, the inner side surface of the limiting pressure plate is fixed to the outer end of the telescopic hose, and the inner end of the telescopic hose is provided with a linkage plate, and the lower end of the linkage plate is connected to the pulley shaft. The elastic telescopic tube and the extrusion rod are installed at a vertical angle to the upper end surface of the limiting pressure plate at the lower end. The limiting pressure plate is in an "eight" shape and the two ends are connected by a cross plate. At the same time, a telescopic hose, a linkage plate and a pulley are provided on the three inner end surfaces of the limiting pressure plate.

[0009] The beneficial effects of the present invention are: 1. Place the round tube in the middle of the upper end surface of the table, and use the inclined baffles on the four side mechanisms on both sides to support the surfaces of the round tubes with different diameters. While supporting, the surface of the round tube is squeezed and contacted with the ball. The hinged plate is used to guide elastic extrusion inside the spring tube, and the position of the ball inside the edge of the inclined baffle is elastically adjusted to ensure that the ball can elastically slide against the surface of the round tube, thereby improving the smoothness of the driving mechanism driving the round tube to rotate; 2. When the cutting press descends to cut the round tube, the driving motor drives the driving shaft to rotate. At this time, the transmission belt drives the two driving wheels to rotate synchronously at both ends of the round tube, and the round tube placed on the upper end of the middle of the table is rotated and guided, so that the cutting press can cut the rotating round tube, ensuring that when the diameter of the round tube is large, the cutting press can also cut the round tube at one time, avoiding secondary cutting and improving the neatness of the cut mouth of the round tube; 3. The connecting bracket drives the limiter to descend during the descent process. The telescopic hose, the linkage plate and the pulley are arranged on the three end faces of the inner side of the limiting pressure plate at the lower end of the limiter. The position of the pulley can be squeezed and adjusted through elastic expansion and contraction of the telescopic hose, so that the pulley can contact the surface of the round tube with different diameters, clamp it, and ensure that it can rotate normally during the round tube cutting process; 4. Through the elastic extrusion and extrusion of the elastic telescopic tube and the extrusion rod, when the cutting tool descends to cut the round tube, the limiting pressure plate remains stationary to resist the round tube, thereby improving the stability during the round tube cutting process. After the cutting is completed, the cutting tool is lifted upward, and the limiting pressure plate is also separated from the round tube, making it easy to remove the cut round tube. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 The present invention is a schematic structural diagram of a clamping mechanism for mechanical automated cutting equipment.

[0011] Figure 2 It is a schematic diagram of the three-dimensional structure of the clamping platform of the present invention.

[0012] Figure 3 It is a schematic diagram of the side view and partial top view of the side mechanism of the present invention.

[0013] Figure 4 It is a schematic diagram of the three-dimensional structure of the driving mechanism of the present invention.

[0014] Figure 5 It is a schematic diagram of the internal and partially disassembled structure of the dust collection mechanism of the present invention.

[0015] Figure 6 It is a schematic diagram of the three-dimensional structure of the cutting press of the present invention.

[0016] Figure 7 Schematic diagram of the internal structure of the limiter of the present invention.

[0017] In the figure: clamping table-Z, control panel-X, support column-V, top plate-D, cutting press-Q, table-z3, extension plate-z6, side mechanism-z8, driving mechanism-z1, fixing block-z84, inclined baffle-z86, ball-z87, hinged plate-z82, spring tube-z89, motor-z18, driving shaft-z14, transmission belt-z16, driving wheel-z13, dust suction mechanism-z11, dust collecting shell-1k, filter plate-1v, lower guide frame-1d, support plate-1g, suction fan-1f, cylinder-q3, connecting bracket-q9, motor-q2, protective cover-q5, cutting tool-q8, limiter-q6, elastic telescopic tube-q64, extrusion rod-q69, limiting pressure plate-q62, telescopic hose-q67, linkage plate-q63, pulley-q66. DETAILED DESCRIPTION

[0018] The present invention is further described below in conjunction with the accompanying drawings: Example

[0019] As attached Figure 1 To Attachment Figure 5 As shown: The present invention discloses a clamping mechanism for mechanical automated cutting equipment, which structure includes a clamping table Z, a control panel X, a support column V, a top plate D, and a cutting press Q. The front end surface of the clamping table Z is provided with a control panel X and is electrically connected. The lower end of the support column V is fixedly mounted on the upper end surface of the clamping table Z. The top of the support column V is provided with a top plate D, and a cutting press Q is installed in the middle of the top plate D. The control panel X is electrically connected to the cutting press Q, and the cutting press Q is located directly above the middle of the clamping table Z. The clamping table Z includes a table top z3, an extension plate z6, a side mechanism z8, and a driving mechanism z1. The front end surface of the table top z3 is provided with a control panel X, and the extension plate z6 is welded to the middle of the upper front end of the table top z3. The side mechanism z8 is fixedly mounted on the upper end surface of the table top z3, and the driving mechanism z1 is installed on the upper end of the table top z3. The driving mechanism z1 is electrically connected to the control panel X, and the cutting press Q is located directly above the table top z3 and the driving mechanism z1. There are four side mechanisms z8, two in a group, and they are distributed at the four end positions of the upper end of the table z3. The four side mechanisms z8 can interfere with the two sides of the round tube placed on the middle upper end of the table z3, and the round tubes of different diameters can be positioned and placed on the middle upper end of the table z3. A transverse groove is provided in the middle of the table z3, and the middle part of the driving mechanism z1 is located at the lower end of the inner part of the transverse groove in the middle of the table z3. When the round tube is cut by the cutting press Q, it just extends into the inner part of the transverse groove in the middle of the table z3 to avoid cutting damage to the table z3.

[0020] The side mechanism z8 includes a fixed block z84, a sloped baffle z86, a ball z87, a hinged plate z82, and a spring tube z89. The bottoms of the fixed block z84 and the sloped baffle z86 are welded to the upper end surface of the table z3, and the fixed block z84 and the sloped baffle z86 are an integrated structure. A ball z87 is provided inside the edge of the sloped baffle z86, and the axis of the ball z87 is connected to the inner axis of the hinged plate z82. The outer end of the hinged plate z82 is installed inside the inner end of the spring tube z89 with a clearance fit, and the spring tube z89 is fixedly installed inside the sloped baffle z86. The angle between the inner inclined surface of the inclined baffle z86 and the table z3 is one hundred and thirty degrees. The four inclined baffles z86 can provide support against the surfaces of round tubes of different diameters. The ball z87, hinged plate z82 and spring tube z89 are all installed at an inclined angle inside the inclined baffle z86, and the ball z87, hinged plate z82 and spring tube z89 are installed in the same straight line orientation, so that the hinged plate z82 can be guided and elastically extruded inside the spring tube z89, and the position of the ball z87 inside the edge of the inclined baffle z86 is elastically adjusted to ensure that the ball z87 can elastically contact and slide with the surface of the round tube, thereby improving the smoothness of the driving mechanism z1 driving the round tube to rotate.

[0021] Wherein, the driving mechanism z1 includes a motor z18, a driving shaft z14, a transmission belt z16, a driving wheel z13, and a dust collecting mechanism z11. The motor z18 is installed at the rear end of the table z3. The output end of the motor z18 is welded to the rear end of the driving shaft z14 and rotates synchronously. The driving shaft z14 rotates synchronously with the driving wheel z13 through the transmission belt z16. The driving wheel z13 is installed inside the upper end of the table z3. The driving shaft z14 is clearance-fitted and penetrates the lower end of the dust collecting mechanism z11 and rotates synchronously. The dust collecting mechanism z11 is located inside the transverse groove at the middle end of the table z3 and is through-connected. The transmission belts z16 are provided with four, and two are in a group, which are respectively installed at the connection between the two driving wheels z13 and the front and rear ends of the driving shaft z14. Through the transmission of the transmission belt z16, the motor z18 drives the driving shaft z14 to rotate, and then drives the two driving wheels z13 to rotate synchronously, so as to rotationally guide the round tube placed on the upper end of the middle part of the table z3, so that the round tube is rotationally cut, ensuring that when the diameter of the round tube is large, the cutting press Q can also cut the round tube at one time, avoiding secondary cutting and improving the neatness of the cutting mouth of the round tube.

[0022] Wherein, the dust collection mechanism z11 includes a dust collecting shell 1k, a filter plate 1v, a lower guide frame 1d, a support plate 1g, and a suction fan 1f. The driving shaft z14 is inserted into the lower end of the dust collecting shell 1k with a clearance fit. The dust collecting shell 1k is located inside the transverse groove at the middle end of the table z3 and is connected through. A filter plate 1v is installed at the middle end of the dust collecting shell 1k, and the upper end of the filter plate 1v is connected to the lower guide frame 1d through the support plate 1g. The lower guide frame 1d is located inside the upper end of the dust collecting shell 1k. The suction fan 1f is installed at the lower end of the dust collecting shell 1k. The suction fan 1f is welded to the driving shaft z14 at the axis and rotates synchronously. The lower guide frame 1d is composed of a plurality of laterally distributed triangular prisms, with a gap between each triangular prism and a cavity structure that is wide at the top and narrow at the bottom formed between every two triangular prisms. The suction fan 1f is started to generate suction to adsorb the material waste generated by cutting downward, and the material waste is guided downward by the lower guide frame 1d and discharged into the dust collecting shell 1k to avoid scratches on the surface of the circular tube for material waste. The left and right ends and the middle part of the lower guide frame 1d are fixedly connected to the left and right ends and the middle part of the filter plate 1v through two support plates 1g, so that the filter plate 1v can be taken out from the dust collecting shell 1k by pulling the lower guide frame 1d upward to clean the collected material waste. The specific usage and function of this embodiment are as follows: In the present invention, a round tube is placed in the middle of the upper end surface of the table z3, and the surfaces of round tubes of different diameters are supported by the inclined baffles z86 on the four side mechanisms z8 on both sides. While supporting, the surface of the round tube is squeezed and contacted with the ball z87, and the hinged plate z82 is used to guide elastic extrusion inside the spring tube z89, and the position of the ball z87 inside the edge of the inclined baffle z86 is elastically adjusted to ensure that the ball z87 can elastically contact and slide with the surface of the round tube, thereby improving the smoothness of the driving mechanism z1 to drive the round tube to rotate. After the round tube is clamped and fixed, the cutting press Q is lowered, and the driving shaft z14 is driven to rotate by the driving motor z18 during the cutting process of the round tube. At this time, the two driving wheels z13 are driven to rotate synchronously at both ends of the round tube through the transmission of the transmission belt z16, and the round tube is placed on the upper middle end of the table z3. The circular tube is rotated and guided so that the cutting and pressing device Q cuts the rotating circular tube, ensuring that when the diameter of the circular tube is large, the cutting and pressing device Q can also cut the circular tube at one time, avoiding secondary cutting and improving the neatness of the cutting mouth of the circular tube. At the same time, when cutting, the cutting and pressing device Q just extends into the horizontal groove in the middle of the table z3 to avoid cutting the table z3, and the driving shaft z14 drives the suction fan 1f to work at the lower end of the dust collecting shell 1k during the rotation process to generate suction, and the material waste generated by the upper end cutting is sucked in from the horizontal groove in the middle of the table z3, and the material waste is guided downward by the lower guide frame 1d and discharged into the dust collecting shell 1k to avoid scratches on the surface of the circular tube caused by the material waste. After the work is completed, the filter plate 1v can be taken out from the inside of the dust collecting shell 1k by pulling the lower guide frame 1d upward to clean the collected material waste. Example

[0023] As attached Figure 6 To Attachment Figure 7 As shown: Wherein, the cutting press Q comprises a cylinder q3, a connecting bracket q9, a motor q2, a protective cover q5, a cutting tool q8, and a limiter q6; the cylinder q3 is installed at the middle end of the top of the top plate D, and the output end of the cylinder q3 is welded to the middle of the upper end of the connecting bracket q9; the lower end of the connecting bracket q9 is fixed to the upper end surface of the motor q2, and the motor q2 is installed outside the protective cover q5; the cutting tool q8 is installed inside the protective cover q5, and the cutting tool q8 rotates synchronously with the output end of the motor q2; the upper end of the limiter q6 is welded to the middle of the connecting bracket q9, and the limiter q6 is located outside the cutting tool q8; the cutting tool q8 is located above the transverse groove at the middle end of the table z3; and the limiter q6 is located above the table z3; Two transverse baffles are provided on both sides of the lower end of the protective cover q5, which can block the material waste generated by cutting, so that the material waste enters the transverse groove at the middle end of the table z3, reducing the waste material and waste from splashing onto the limiter q6.

[0024] Wherein, the limiter q6 includes an elastic telescopic tube q64, an extrusion rod q69, a limiting pressure plate q62, a telescopic hose q67, a linkage plate q63, and a pulley q66. The upper end of the elastic telescopic tube q64 is welded to the middle of the connecting bracket q9, and the upper end of the extrusion rod q69 is passed through the lower end of the elastic telescopic tube q64 by a clearance fit. The lower end of the extrusion rod q69 is welded to the middle of the upper end of the limiting pressure plate q62. The limiting pressure plate q62 is located on the outside of the cutting tool q8. The inner side surface of the limiting pressure plate q62 is fixed to the outer end of the telescopic hose q67, and the inner end of the telescopic hose q67 is provided with a linkage plate q63, and the lower end of the linkage plate q63 is connected to the pulley q66 shaft. The elastic telescopic tube q64 and the extrusion rod q69 are installed at a vertical angle to the upper end surface of the limiting pressure plate q62 at the lower end. The connection support of the connecting bracket q9 allows the cutting tool q8 to drive the limiting pressure plate q62 to contact the surface of the round tube during the descent process. At the same time, when the cutting tool q8 continues to descend to cut the round tube, the elastic extrusion and extrusion of the elastic telescopic tube q64 and the extrusion rod q69 make the limiting pressure plate q62 remain stationary and contact the round tube, thereby improving the stability of the round tube cutting process. After the cutting is completed, the cutting tool q8 is lifted up. At this time, the limiting pressure plate q62 is also separated from the round tube, which is convenient for removing the cut round tube. The limiting pressure plate q62 is in an "eight" shape, and the two ends are connected by a cross plate. At the same time, a telescopic hose q67, a linkage plate q63 and a pulley q66 are provided on the three inner end faces of the limiting pressure plate q62. The telescopic hose q67 is elastically extended and retracted, and the position of the pulley q66 can be squeezed and adjusted, so that the pulley q66 can contact the surface of round tubes of different diameters, clamp them, and ensure that they can rotate normally during the round tube cutting process. The specific usage and function of this embodiment are as follows: In the present invention, when the cutting and suppressing device Q cuts the round tube, the cylinder q3 and the motor q2 are started. After the cylinder q3 is started, the connecting bracket q9 is driven to descend. At this time, the motor q2, the protective cover q5 and the cutting tool q8 are synchronously descended. At the same time, under the drive of the motor q2, the cutting tool q8 is rotated to cut the round tube. At the same time, two horizontal baffles are provided on both sides of the lower end of the protective cover q5, which can block the material waste generated by the cutting, so that the material waste enters the horizontal groove at the middle end of the table z3, reducing the waste from splashing onto the limiter q6. At the same time, the connecting bracket q9 drives the limiter q6 to descend during the descent process, and the three inner sides of the limiting pressure plate q62 at the lower end of the limiter q6 are closed. The telescopic hose q67, the linkage plate q63 and the pulley q66 arranged on each end face can be elastically extended and retracted through the telescopic hose q67, and the position of the pulley q66 can be squeezed and adjusted, so that the pulley q66 can contact the surface of the round tube with different diameters to clamp it and ensure that it can rotate normally during the round tube cutting process. In addition, through the elastic extrusion and coordinated extrusion of the elastic telescopic tube q64 and the extrusion rod q69, when the cutting tool q8 descends to cut the round tube, the limiting pressure plate q62 remains stationary to contact the round tube, thereby improving the stability during the round tube cutting process. After the cutting is completed, the cutting tool q8 is lifted up, and at this time the limiting pressure plate q62 is also separated from the round tube, so that the cut round tube can be removed easily. Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. A clamping mechanism for mechanical automated cutting equipment, comprising a clamping table (Z), a control panel (X), a support column (V), a top plate (D), and a cutting press (Q), wherein the front end surface of the clamping table (Z) is provided with a control panel (X) and is electrically connected, the lower end of the support column (V) is fixedly mounted on the upper end surface of the clamping table (Z), the top of the support column (V) is provided with a top plate (D), and a cutting press (Q) is mounted in the middle of the top plate (D), the control panel (X) is electrically connected to the cutting press (Q), and the cutting press (Q) is located directly above the middle of the clamping table (Z), characterized in that: The clamping table (Z) comprises a table top (z3), an extension plate (z6), a side mechanism (z8), and a driving mechanism (z1); a control panel (X) is provided on the front end surface of the table top (z3), and the extension plate (z6) is welded to the middle part above the front end of the table top (z3); the side mechanism (z8) is fixedly mounted on the upper end surface of the table top (z3), and the driving mechanism (z1) is mounted on the upper end inside the table top (z3); the driving mechanism (z1) is electrically connected to the control panel (X), and the cutting press (Q) is located directly above the table top (z3) and the driving mechanism (z1).

2. The clamping mechanism for mechanical automated cutting equipment according to claim 1, characterized in that: The side mechanism (z8) comprises a fixed block (z84), a sloped baffle (z86), a ball (z87), a hinged plate (z82), and a spring tube (z89); the bottoms of the fixed block (z84) and the sloped baffle (z86) are welded to the upper end surface of the table top (z3); the fixed block (z84) and the sloped baffle (z86) are an integrated structure; a ball (z87) is provided inside the edge of the sloped baffle (z86); the axis of the ball (z87) is connected to the inner axis of the hinged plate (z82); the outer end of the hinged plate (z82) is installed inside the inner end of the spring tube (z89) by a clearance fit; and the spring tube (z89) is fixedly installed inside the sloped baffle (z86).

3. The clamping mechanism for mechanical automated cutting equipment according to claim 1, characterized in that: The driving mechanism (z1) comprises a motor (z18), a driving shaft (z14), a transmission belt (z16), a driving wheel (z13), and a dust collecting mechanism (z11); the motor (z18) is mounted at the rear end of the table top (z3); the output end of the motor (z18) is welded to the rear end of the driving shaft (z14) and rotates synchronously; the driving shaft (z14) rotates synchronously with the driving wheel (z13) via the transmission belt (z16); the driving wheel (z13) is mounted inside the upper end of the table top (z3); the driving shaft (z14) is clearance-fitted and penetrates the lower end of the dust collecting mechanism (z11) and rotates synchronously; the dust collecting mechanism (z11) is located inside a transverse groove at the middle end of the table top (z3) and is through-connected.

4. The clamping mechanism for mechanical automated cutting equipment according to claim 3, characterized in that: The dust collection mechanism (z11) comprises a dust collecting shell (1k), a filter plate (1v), a lower guide frame (1d), a support plate (1g), and a suction fan (1f); the drive shaft (z14) is inserted through the lower end of the dust collecting shell (1k) by means of a clearance fit; the dust collecting shell (1k) is located inside a transverse groove at the middle end of the table top (z3) and is connected through the groove; a filter plate (1v) is installed at the middle end of the dust collecting shell (1k), and the upper end of the filter plate (1v) is connected to the lower guide frame (1d) via the support plate (1g); the lower guide frame (1d) is located inside the upper end of the dust collecting shell (1k); the suction fan (1f) is installed at the lower end of the dust collecting shell (1k); the suction fan (1f) is welded to the drive shaft (z14) at the axis and rotates synchronously.

5. The clamping mechanism for mechanical automated cutting equipment according to claim 1, characterized in that: The cutting press (Q) comprises a cylinder (q3), a connecting bracket (q9), a motor (q2), a protective cover (q5), a cutting tool (q8), and a limiter (q6); the cylinder (q3) is mounted at the middle of the top of the top plate (D), and the output end of the cylinder (q3) is welded to the middle of the upper end of the connecting bracket (q9); the lower end of the connecting bracket (q9) is fixed to the upper end surface of the motor (q2), and the motor (q2) is mounted outside the protective cover (q5); the cutting tool (q8) is mounted inside the protective cover (q5), and the cutting tool (q8) rotates synchronously with the output end of the motor (q2); the upper end of the limiter (q6) is welded to the middle of the connecting bracket (q9), and the limiter (q6) is located outside the cutting tool (q8); the cutting tool (q8) is located above the transverse groove at the middle end of the table (z3); and the limiter (q6) is located above the table (z3).

6. The clamping mechanism for mechanical automated cutting equipment according to claim 5, characterized in that: The limiter (q6) comprises an elastic telescopic tube (q64), an extrusion rod (q69), a limiting pressure plate (q62), a telescopic hose (q67), a linkage plate (q63), and a pulley (q66); the upper end of the elastic telescopic tube (q64) is welded to the middle of the connecting bracket (q9), and the upper end of the extrusion rod (q69) is inserted into the lower end of the elastic telescopic tube (q64) with a clearance fit; the lower end of the extrusion rod (q69) is welded to the middle of the upper end of the limiting pressure plate (q62); the limiting pressure plate (q62) is located outside the cutting tool (q8); the inner side surface of the limiting pressure plate (q62) is fixed to the outer end of the telescopic hose (q67); the inner end of the telescopic hose (q67) is provided with a linkage plate (q63); and the lower end of the linkage plate (q63) is connected to the pulley (q66) shaft.

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