A flame cutting device with multi-point synchronous cutting function

Abstract

The invention discloses a flame cutting device with a multi-point synchronous cutting function, and the invention relates to the field of metal cutting technology. The flame cutting device comprises a cutting mounting frame, a composite frame is arranged on the cutting mounting frame, the composite frame is slidably connected to the cutting mounting frame, a compensation mounting frame is arranged on the cutting mounting frame, a multi-point positioning frame is arranged on the cutting mounting frame, a plurality of cutting holes are arranged on the multi-point positioning frame, a cutting gun is arranged in each cutting hole, a gas conduit and an oxygen supply conduit are arranged on the cutting gun, a following frame is arranged on the cutting mounting frame, the following frame is connected to the multi-point positioning frame through a bracket, an air gathering ring is rotatably connected to the following frame, the air gathering ring is electrically connected to the multi-point positioning frame through a wire, a control box is arranged on the cutting mounting frame, the control box is electrically connected to the cutting gun, the multi-point positioning frame, the air gathering ring and the composite frame through a wire, and the invention has the function of automatically adjusting the flame and stabilizing the cutting state.

Description

Technical Field

[0001] The invention relates to the technical field of metal cutting, in particular to a flame cutting device with a multi-point synchronous cutting function. Background Art

[0002] Flame cutting is a common method for rough processing of steel plates. Flame cutting is gas cutting. Traditionally, acetylene and propane are used for cutting. Later, people used natural gas as fuel for cutting. The gas flame is used to heat the surface of the steel plate to make it reach the combustion temperature locally, and then a high-purity, high-speed cutting oxygen flow is introduced to cause the metal to undergo a violent combustion reaction and release heat. At the same time, the huge kinetic energy of the high-speed cutting oxygen flow is used to blow away the combustion products and form a cutting seam. Flame cutting has made outstanding contributions to the development of the cutting industry, cutting technology and promotion and application.

[0003] However, the danger of flame cutting and subsequent processing are both thorny issues. Usually, the workpieces processed by flame cutting require pre-processing or subsequent processing, so the processing methods are usually rough. In the production process, there are usually some problems such as explosion and serious deformation of the workpiece. These problems need to be solved urgently. If they are not solved, it will not only cause personal safety problems for operators, but also blind processing will cause damage to the workpiece. Subsequent processing will not only waste time, but also cause a lot of labor and material waste. Summary of the invention

[0004] The object of the present invention is to provide a flame cutting device with a multi-point synchronous cutting function to solve the problems raised in the above background technology.

[0005] In order to solve the above technical problems, the present invention provides the following technical solution: a flame cutting device with a multi-point synchronous cutting function.

[0006] The flame cutting device comprises a cutting mounting frame, a composite frame is arranged on the cutting mounting frame, the composite frame is slidably connected to the cutting mounting frame, a compensation mounting frame is arranged on the cutting mounting frame, the compensation mounting frame is slidably connected to the cutting mounting frame, a multi-point positioning frame is arranged on the cutting mounting frame, a plurality of cutting holes are arranged on the multi-point positioning frame, a cutting gun is arranged in each cutting hole, a gas conduit and an oxygen supply conduit are arranged on the cutting gun, a following frame is arranged on the cutting mounting frame, the following frame is connected to the multi-point positioning frame through a bracket, an air gathering ring is rotatably connected to the following frame, the air gathering ring is electrically connected to the multi-point positioning frame through a wire, a control box is arranged on the cutting mounting frame, and the control box is connected to the cutting gun, the multi-point positioning frame, the air gathering ring, and the composite frame through a wire. The frame is electrically connected. When cutting, you first need to install the workpiece on the compensation mounting seat, and then start the cutting gun. The cutting gun sprays a high-pressure flame. The gas conduit and the oxygen supply conduit work together to provide combustion gas to the cutting gun to ensure long-term cutting operation. In the cutting process, as the composite frame moves, the workpiece will also move. The multi-point positioning frame can adjust the posture and position of the cutting gun to achieve synchronous multi-point cutting operations. When cutting, the wind gathering ring on the follower frame will change with the changes of the cutting gun, thereby extending the flame length and flame depth. All these operating instructions are issued by the control box, and the control box balances the coordination relationship between various components.

[0007] A moving motor and a moving groove are provided on the compound frame, a supporting guide rail is provided on the cutting mounting frame, a moving motor is provided in the moving groove, a moving gear is provided on the output end of the moving motor, teeth are provided on the supporting guide rail, the moving gear meshes with the teeth on the supporting guide rail, a plurality of mounting grooves are provided on the compound frame, each compensating mounting frame is respectively provided in a corresponding mounting groove, the mounting groove and the compensating mounting frame are detachably connected, when cutting is required, the moving motor will drive the moving gear to rotate, and the rotation of the moving gear drives the moving groove to move on the supporting guide rail, and the compensating mounting frame is responsible for installing the workpiece to be cut, and the cutting trajectory is controlled by controlling the progress of the moving motor, and the mounting groove supports the position of the compensating mounting frame to adapt to workpieces of various shapes.

[0008] The compensating mounting frame includes a connecting frame and a clamping frame, the connecting frame is connected to the mounting groove, the clamping frame is interactively connected to the connecting frame, a plurality of capturing clamps are slidably connected to the clamping frame, each capturing clamp is rotatably connected to a fastening clamp, a locking key is provided on the fastening clamp, each locking key is slidably connected to the fastening clamp, a locking groove is provided on the capturing clamp, and the locking key is in sliding contact with the locking groove. Before cutting, the workpiece needs to be installed on the clamping frame. At this time, the fastening clamp and the capturing clamp are opened, the workpiece falls on the fastening clamp, and then the capturing clamp is rotated onto the workpiece, and then the locking key is released. The locking key will lock the fastening clamp, thereby locking the workpiece firmly. When it is necessary to cut a large workpiece, a leapfrog installation method can be adopted to lock and capture the workpiece, thereby increasing the processing range of the workpiece.

[0009] A plurality of compensation grooves are respectively arranged on the capture clamp and the fastening clamp, and a compensation wheel and a compensation spring are respectively arranged in each compensation groove, and each compensation wheel is respectively slidably connected with the corresponding compensation groove, and a pressing inclined groove is arranged on the compensation wheel, and the compensation spring is pressed against the corresponding pressing inclined groove, and a bearing is arranged on the supporting end of the compensation wheel. The connecting shafts on the fastening clamp and the capture clamp are electric shafts, and the connecting shafts are electrically connected to the control box through wires. During the workpiece installation process, the electric shaft is controlled by the control box, and the capture clamp and the fastening clamp will clamp the workpiece, and the compensation wheel will press against the workpiece, and make the compensation spring press against the compensation wheel, so that the compensation wheel no longer rotates. In order to avoid accidentally damaging the capture clamp and the tendon and bone piece during the cutting process, the connection shaft can be controlled to rotate by the control box during cutting, and the workpiece can be easily pushed at this time without causing the workpiece to be excessively offset.

[0010] The cutting gun comprises a cutting nozzle and a separation frame, a first diffuser and a second diffuser are arranged on the separation frame, the first diffuser and the second diffuser are rotatably connected to the separation frame through a spring shaft, the separation frame is arranged on the cutting nozzle, an expansion motor is arranged on the separation frame, the first diffuser and the second diffuser are connected to the output end of the expansion motor through a steel rope, a plurality of air holes are arranged on the first diffuser and the second diffuser respectively, the first diffuser and the second diffuser are connected to the fuel tank through a gas conduit, when the workpiece is cut, the width and depth of the flame can be adjusted by the expansion motor, the expansion motor is started, the expansion motor will drive the steel ropes on the first diffuser and the second diffuser to move, and the first diffuser and the second diffuser will rotate, so as to adjust the direction of the jet, when the first diffuser and the second diffuser are expanded, the flame depth is longer and the flame width is larger, the cutting method in this state is more suitable for preheating and expansion cutting methods, when the first diffuser and the second diffuser are reduced, the flame depth is shorter and the flame width is narrower, the flame density is better, and it is more suitable for cutting operations.

[0011] An oxygen spray pipe is provided on the separation frame, and the oxygen spray pipe is connected with the oxygen tank through the oxygen supply conduit. A regulating valve is provided on the oxygen spray pipe, and the regulating valve is electrically connected to the control box through a wire. Return fan blades are rotatably connected on both sides of the cutting nozzle, and each return fan blade is provided with a wind-sensing shrapnel. A return air switch is provided near the return fan blade of the cutting nozzle, and the wind-sensing shrapnel and the return air switch are electrically connected to the control box through a wire. During the cutting process, the supply of oxygen is very important, and the regulating valve is controlled by the control box to work. When the permeability of the regulating valve increases, the oxygen spraying amount at this time increases. , the length of the oxygen jet also increases, which is coordinated with the expansion of the first diffuser and the second diffuser. When the permeability of the regulating valve decreases, the oxygen ejection volume at this time decreases, and the length of the oxygen jet also decreases, which is coordinated with the first diffuser and the second diffuser when they are close to each other. Through the cooperation of the wind-sensing spring and the return air switch, the current cutting depth and cutting force can be known. When the trigger frequency of the return air switch increases, the control box will control the regulating valve to reduce the air volume to avoid the increase of oxygen volume or excessive wind and waves, which will cause the workpiece to appear concave and deformed. On the contrary, the pass rate of the regulating valve is reduced.

[0012] A feedback net is provided on the cutting nozzle, and a plurality of feedback boxes are provided on the feedback net. A feedback diaphragm is provided on each feedback box, and a feedback spring and a feedback switch are provided in each feedback box. The two ends of the feedback spring are respectively against the feedback diaphragm and the feedback switch. Each feedback switch is electrically connected to the control box through a wire, and the control box controls the stroke of the expansion motor through the wire. During the cutting process, the cutting nozzle sprays a flame. When it contacts the workpiece, the heat wave hitting the workpiece will rebound to the feedback net, and the feedback box on the feedback net will feel the feedback degree of its heat wave, which is fed back by the feedback diaphragm and the deformation is applied to the feedback spring. When the heat wave is too large, the force of the feedback spring acting on the feedback switch increases, so the feedback switch is triggered. When cutting, preheating is required first. After the preheating is completed, the first diffuser and the second diffuser are adjusted by the power-on information fed back, and the flame width is reduced to perform deep cutting. After cutting through, the power-on information transmitted from the feedback diaphragm becomes less. When the flame is expanded, it can fully adapt to the effect of stable cutting of various steel plates and avoid the problem of workpiece deformation caused by overheating.

[0013] The multi-point positioning frame is provided with multiple adjustment frames, the cutting nozzle passes through the adjustment frames and is detachably connected to the adjustment frames, the multi-point positioning frame is provided with an adjustment rack, the adjustment rack is slidably connected to the multi-point positioning frame, the multi-point positioning frame is provided with an adjustment motor, the teeth on the adjustment rack are meshed with the output end of the adjustment motor and the teeth on the adjustment frame, when cutting is performed, when it is necessary to cut the workpiece on a special track, the adjustment motor on the multi-point positioning frame is started, the adjustment motor will drive the adjustment rack to move, thereby indirectly driving the adjustment frame with teeth to rotate, when the adjustment frame rotates, the cutting nozzle will also rotate with the rotation of the adjustment frame, thereby achieving the effect of multi-point synchronous cutting.

[0014] A plurality of following slots are arranged on the following frame, and the positions of the following slots correspond to the positions of the adjusting frame. A focusing fan blade is arranged in the focusing ring, and the focusing fan blade is rotationally connected to the focusing ring. A following rack and a following motor are arranged on the following frame, and the following rack is slidingly connected to the following frame. The teeth on the following rack are meshed with the teeth on the output end of the following motor and the focusing fan ring. The following motor and the focusing ring are electrically connected to the control box through wires. During the cutting process, the focusing ring rotates in the following slot under the action of the following rack, and the following rack slides in the following frame under the action of the following motor. A power component is loaded in the focusing fan blade, and the power component is controlled by the control box and can perform speed conversion. When the flame length needs to be changed, the rotation speed of the focusing fan blade can be increased. The increase in the rotation speed of the focusing fan blade can increase the length of the flame and reduce the radius, which can not only perform impurity removal operations, but also increase the depth of the flame, and avoid the problem of workpiece damage caused by flame diffusion.

[0015] Compared with the prior art, the beneficial effects achieved by the present invention are: 1. The present invention adopts an installation component with a compensation structure, which can perform compensatory installation on the workpiece, fully reducing the excessive clamping of the clamping frame on the workpiece, and the inability to adapt to the deformation and displacement of the workpiece caused by the cutting process, and at the same time, it can also avoid the problem of accidental injury during the cutting process.

[0016] The present invention adopts an automatically adjustable structure to perform feedback detection on heat waves and airflow rebound, and automatically adjust the width and length of the flame to adapt to cutting operations of various structures and materials, making the cutting operation more stable and reducing the problems of bursting and excessive deformation of the workpiece due to uneven heating.

[0017] The present invention adopts an automatic following boosting component, which can automatically adjust the boosting state according to the current processing state, thereby controlling the length of the flame, reducing the problem of flame diffusion after the flame penetrates the workpiece, and avoiding the problem of excessive deformation of the upper and lower ends of the workpiece. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0019] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0020] Figure 2 It is a cross-sectional structural schematic diagram of the present invention;

[0021] Figure 3 It is a schematic diagram of the detailed structure of the compensation mounting frame of the present invention;

[0022] Figure 4 It is a schematic structural diagram of the matching relationship between the capture clip and the fastening clip of the present invention;

[0023] Figure 5 It is a partial cross-sectional structural schematic diagram of the multi-point cutting frame of the present invention;

[0024] Figure 6 It is a schematic diagram of a partial cross-sectional structure of the composite frame of the present invention;

[0025] Figure 7 It is a schematic diagram of the internal structure of the cutting gun of the present invention;

[0026] Figure 8 It is a schematic diagram of the internal structure of the feedback box of the present invention;

[0027] Fig. 9 It is a partial cross-sectional structural schematic diagram of the following frame of the present invention;

[0028] In the figure: 1. cutting mounting frame; 101. supporting rail; 2. composite frame; 201. moving motor; 202. moving gear; 3. compensation mounting frame; 301. connecting frame; 302. clamping frame; 303. catching clamp; 304. fastening clamp; 305. locking key; 306. compensation groove; 307. compensation wheel; 308. compensation spring; 4. multi-point positioning frame; 401. adjustment frame; 402. adjustment rack; 403. adjustment motor; 5. cutting gun; 501. cutting nozzle; 502. separation frame; 503. The first diffuser; 504, the second diffuser; 505, the expansion motor; 506, the oxygen injection pipe; 507, the regulating valve; 508, the return air blade; 509, the wind sensing spring; 510, the return air switch; 511, the feedback network; 512, the feedback box; 513, the feedback diaphragm; 514, the feedback spring; 515, the feedback switch; 6, the gas duct; 7, the oxygen supply duct; 8, the follower frame; 801, the follower slot; 802, the follower rack; 803, the follower motor; 9, the wind gathering ring; 901, the fan blade; 10, the control box. DETAILED DESCRIPTION

[0029] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0030] The flame cutting device comprises a cutting mounting frame 1, a composite frame 2 is arranged on the cutting mounting frame 1, the composite frame 2 is slidably connected to the cutting mounting frame 1, a compensation mounting frame 3 is arranged on the cutting mounting frame 1, the compensation mounting frame 3 is slidably connected to the cutting mounting frame 1, a multi-point positioning frame 4 is arranged on the cutting mounting frame 1, a plurality of cutting holes are arranged on the multi-point positioning frame 4, a cutting gun 5 is arranged in each cutting hole, a gas conduit 6 and an oxygen supply conduit 7 are arranged on the cutting gun 5, a following frame 8 is arranged on the cutting mounting frame 1, the following frame 8 is connected to the multi-point positioning frame 4 through a bracket, an air gathering ring 9 is rotatably connected to the following frame 8, the air gathering ring 9 is electrically connected to the multi-point positioning frame 4 through a wire, a control box 10 is arranged on the cutting mounting frame 1, and the control box 10 is connected to the cutting gun 5 through a wire. , the multi-point positioning frame 4, the air focusing ring 9, and the composite frame 2 are electrically connected. When cutting, the workpiece needs to be mounted on the compensation mounting seat first, and then the cutting gun is started. The cutting gun sprays a high-pressure flame, and the gas conduit and the oxygen supply conduit work together to provide combustion gas to the cutting gun to ensure a long-term cutting operation. During the cutting process, as the composite frame moves, the workpiece will also move accordingly. The multi-point positioning frame can adjust the posture and position of the cutting gun to achieve synchronous multi-point cutting operations. When cutting, the air focusing ring on the follower frame will change with the changes of the cutting gun, thereby extending the flame length and flame depth. All these operating instructions are issued by the control box, and the control box balances and adjusts the coordination relationship between the various components.

[0031] A moving motor 201 and a moving groove are provided on the composite frame 2, a supporting guide rail 101 is provided on the cutting mounting frame 1, a moving motor 201 is provided in the moving groove, a moving gear 202 is provided on the output end of the moving motor 201, and teeth are provided on the supporting guide rail 101. The moving gear 202 meshes with the teeth on the supporting guide rail 101. A plurality of mounting grooves are provided on the composite frame 2, and each compensating mounting frame 3 is respectively provided in a corresponding mounting groove. The mounting groove and the compensating mounting frame 3 are detachably connected. When cutting is required, the moving motor will drive the moving gear to rotate, and the rotation of the moving gear drives the moving groove to move on the supporting guide rail, and the compensating mounting frame is responsible for installing the workpiece to be cut. The cutting trajectory is controlled by controlling the progress of the moving motor, and the mounting groove supports the position of the compensating mounting frame to adapt to workpieces of various shapes.

[0032] The compensating mounting frame 3 includes a connecting frame 301 and a clamping frame 302. The connecting frame 301 is connected to the mounting groove, and the clamping frame 302 is interactively connected to the connecting frame 301. A plurality of capturing clamps 303 are slidably connected to the clamping frame 302. A fastening clamp 304 is rotatably connected to each capturing clamp 303. A locking key 305 is provided on the fastening clamp 304. Each locking key 305 is slidably connected to the fastening clamp 304. A locking groove is provided on the capturing clamp 303. The locking key 305 is in sliding contact with the locking groove. Before cutting, the workpiece needs to be installed on the clamping frame. At this time, the fastening clamp and the capturing clamp are opened, and the workpiece falls on the fastening clamp. Then the capturing clamp is rotated onto the workpiece, and then the locking key is released. The locking key will lock the fastening clamp, thereby locking the workpiece firmly. When it is necessary to cut a large workpiece, a leapfrog installation method can be adopted to lock and capture the workpiece, thereby increasing the processing range of the workpiece.

[0033] A plurality of compensation grooves 306 are respectively provided on the capture clamp 303 and the fastening clamp 304, and a compensation wheel 307 and a compensation spring 308 are respectively provided in each compensation groove 306, and each compensation wheel 307 is slidably connected with the corresponding compensation groove 306, and a pressing inclined groove is provided on the compensation wheel 307, and the compensation spring 308 presses against the corresponding pressing inclined groove, and a bearing is provided on the supporting end of the compensation wheel 307. The connecting shaft on the fastening clamp 304 and the capture clamp 303 is an electric shaft, and the connecting shaft is electrically connected to the control box 10 through a wire. During the workpiece installation process, the electric shaft is controlled by the control box, and the capture clamp and the fastening clamp will clamp the workpiece, and the compensation wheel will press against the workpiece, and the compensation spring will press against the compensation wheel, so that the compensation wheel will no longer rotate. In order to avoid accidentally damaging the capture clamp and the tendon and bone piece during the cutting process, the connection shaft can be controlled to rotate by the control box during cutting, and the workpiece can be easily pushed at this time without causing excessive deviation of the workpiece.

[0034] The cutting gun 5 includes a cutting nozzle 501 and a separation frame 502, on which a first diffuser 503 and a second diffuser 504 are arranged, which are rotatably connected to the separation frame 502 through a spring shaft, and the separation frame 502 is arranged on the cutting nozzle 501, and an expansion motor 505 is arranged on the separation frame 502, the first diffuser 503 and the second diffuser 504 are connected to the output end of the expansion motor 505 through a steel rope, and a plurality of air holes are arranged on the first diffuser 503 and the second diffuser 504, respectively, and the first diffuser 503 and the second diffuser 504 are connected to the fuel through the gas conduit 6. The tank is connected. When cutting the workpiece, the width and depth of the flame can be adjusted by the expansion motor. When the expansion motor is started, the expansion motor will drive the steel ropes on the first diffusion sheet and the second diffusion sheet to move, and the first diffusion sheet and the second diffusion sheet will rotate, thereby adjusting the direction of the jet. When the first diffusion sheet and the second diffusion sheet are expanded, the flame depth is longer and the flame width is larger. The cutting method in this state is more suitable for preheating and expansion cutting methods. When the first diffusion sheet and the second diffusion sheet are reduced, the flame depth is shorter and the flame width is narrower, the flame density is better, and it is more suitable for cutting operations.

[0035] An oxygen spray pipe 506 is provided on the separation frame 502, and the oxygen spray pipe 506 is connected to the oxygen tank through the oxygen supply conduit 7. A regulating valve 507 is provided on the oxygen spray pipe 506, and the regulating valve 507 is electrically connected to the control box 10 through a wire. Return fan blades 508 are rotatably connected on both sides of the cutting nozzle 501, and each return fan blade 508 is respectively provided with a wind-sensing spring piece 509. A return air switch 510 is provided near the return fan blade 508 of the cutting nozzle 501. The wind-sensing spring piece 509 and the return air switch 510 are electrically connected to the control box 10 through a wire. During the cutting process, the supply of oxygen is very important, and the regulating valve is controlled by the control box to supply oxygen. When the permeability of the regulating valve increases, the oxygen ejection volume increases, and the length of the oxygen ejection also increases, which cooperates with the expansion of the first diffuser and the second diffuser. When the permeability of the regulating valve decreases, the oxygen ejection volume decreases, and the length of the oxygen ejection also decreases, which cooperates with the proximity of the first diffuser and the second diffuser. Through the cooperation of the wind-sensing spring piece and the return air switch, the current cutting depth and cutting force can be known. When the trigger frequency of the return air switch increases, the control box will control the regulating valve to reduce the air volume to avoid the increase of oxygen volume or excessive wind and waves, which will cause the workpiece to appear concave and deformed. Conversely, the pass rate of the regulating valve is reduced.

[0036] A feedback net 511 is provided on the cutting nozzle 501, and a plurality of feedback boxes 512 are provided on the feedback net 511. A feedback diaphragm 513 is provided on each feedback box 512. A feedback spring 514 and a feedback switch 515 are provided in each feedback box 512. Both ends of the feedback spring 514 respectively abut against the feedback diaphragm 513 and the feedback switch 515. Each feedback switch 515 is electrically connected to the control box 10 through a wire. The control box 10 controls the stroke of the expansion motor 505 through the wire. During the cutting process, the cutting nozzle sprays flames. When it contacts the workpiece, the heat wave hitting the workpiece will rebound to the feedback net. The feedback box on the feedback network will feel the feedback degree of the heat wave, which will be fed back by the feedback diaphragm and the deformation will be applied to the feedback spring. When the heat wave is too large, the force of the feedback spring on the feedback switch will increase, so the feedback switch will be triggered. When cutting, preheating is required first. After the preheating is completed, the first diffuser and the second diffuser are adjusted through the power-on information fed back, and deep cutting is performed from the reduced flame width. After cutting through, the power-on information transmitted from the feedback diaphragm becomes less, and the operation of expanding the flame can fully adapt to the stable cutting effect of various steel plates and avoid the problem of workpiece deformation caused by overheating.

[0037] A plurality of adjustment frames 401 are arranged on the multi-point positioning frame 4, and the cutting nozzle 501 passes through the adjustment frame 401 and is detachably connected to the adjustment frame 401. An adjustment rack 402 is arranged on the multi-point positioning frame 4, and the adjustment rack 402 is slidably connected to the multi-point positioning frame 4. An adjustment motor 403 is arranged on the multi-point positioning frame 4, and the teeth on the adjustment rack 402 are meshed with the teeth on the output end of the adjustment motor 403 and the adjustment frame 401. When cutting, when it is necessary to cut the workpiece on a special track, the adjustment motor on the multi-point positioning frame is started, and the adjustment motor will drive the adjustment rack to move, thereby indirectly driving the adjustment frame with teeth to rotate. When the adjustment frame rotates, the cutting nozzle will also rotate with the rotation of the adjustment frame, thereby achieving the effect of multi-point synchronous cutting.

[0038] The following frame 8 is provided with a plurality of following slots 801, and the position of the following slots 801 corresponds to the position of the adjusting frame 401. A focusing fan blade 901 is provided in the wind focusing ring 9, and the focusing fan blade 901 is rotatably connected to the wind focusing ring 9. The following frame 8 is provided with a following rack 802 and a following motor 803, and the following rack 802 is slidably connected to the following frame 8. The teeth on the following rack 802 are meshed with the output end of the following motor 803 and the teeth on the wind focusing ring 9. The following motor 803 and the wind focusing ring 9 are electrically connected to the control box 10 through wires. During the cutting process, During the process, the air focusing ring rotates in the following groove under the action of the following rack, and the following rack slides in the following frame under the action of the following motor, and the air focusing fan blades are loaded with a power component, which is controlled by the control box and can perform speed changes. When the flame length needs to be changed, the speed of the air focusing fan blades can be increased. The faster the speed of the air focusing fan blades, the longer the flame and the smaller the radius. It can not only perform impurity removal operations, but also increase the depth of the flame, and avoid the problem of workpiece damage caused by flame diffusion.

[0039] The working principle of the present invention is as follows: when cutting, the workpiece needs to be mounted on the compensation mounting seat 3 first, and the fastening clamp 304 and the catching clamp 303 are opened at this time, and the workpiece falls on the fastening clamp 304, and then the catching clamp 303 is rotated onto the workpiece, and then the locking key 305 is released, and the locking key 305 will lock the fastening clamp 304, and then the cutting gun 5 is started, and the cutting gun 5 sprays out a high-pressure flame, and the gas conduit 6 and the oxygen supply conduit 7 work together to provide combustion gas to the cutting gun 5, and the width and depth of the flame are adjusted by the expansion motor 505, and the expansion motor 505 is started, and the expansion motor 505 will drive the steel ropes on the first diffusion sheet 503 and the second diffusion sheet 504 to move, and the first diffusion sheet 503 and the second diffusion sheet 504 will rotate, so as to adjust the direction of the jet, and the control box 10 controls the regulating valve 507 to perform Work, adjust the supply length and supply amount of oxygen, and in the cutting process, as the composite frame 2 moves, the workpiece will also move accordingly, the multi-point positioning frame 4 can adjust the posture and position of the cutting gun 5, so as to realize synchronous multi-point cutting operation, when cutting, the wind focusing ring 9 on the following frame 8 will change with the change of the cutting gun 5, the wind focusing ring 9 rotates in the following groove 801 under the action of the following rack 802, and the following rack 802 slides in the following frame 8 under the action of the following motor 803, and the fan blade 901 is loaded with a power component, which is controlled by the control box 10 and can be speed-changed, thereby controlling the length of the flame and the diffusion state of the flame, and all these operating instructions are issued by the control box 10, and the control box 10 balances and adjusts the coordination relationship between the various components.

[0040] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0041] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A flame cutting device with multi-point synchronous cutting function, characterized in that: The flame cutting device comprises a cutting mounting frame (1), a composite frame (2) is arranged on the cutting mounting frame (1), the composite frame (2) is slidably connected to the cutting mounting frame (1), a compensation mounting frame (3) is arranged on the cutting mounting frame (1), the compensation mounting frame (3) is slidably connected to the cutting mounting frame (1), a multi-point positioning frame (4) is arranged on the cutting mounting frame (1), a plurality of cutting holes are arranged on the multi-point positioning frame (4), a cutting gun (5) is arranged in each of the cutting holes, and a cutting gun (5) is arranged on the cutting gun (5). A gas conduit (6) and an oxygen supply conduit (7) are provided, a following frame (8) is provided on the cutting mounting frame (1), the following frame (8) is connected to the multi-point positioning frame (4) through a bracket, an air gathering ring (9) is rotatably connected to the following frame (8), the air gathering ring (9) is electrically connected to the multi-point positioning frame (4) through a wire, a control box (10) is provided on the cutting mounting frame (1), and the control box (10) is electrically connected to the cutting gun (5), the multi-point positioning frame (4), the air gathering ring (9), and the composite frame (2) through a wire; The compensating mounting frame (3) comprises a connecting frame (301) and a clamping frame (302), wherein the connecting frame (301) is connected to the mounting groove, and the clamping frame (302) is interactively connected to the connecting frame (301), and a plurality of capturing clamps (303) are slidably connected to the clamping frame (302), and each of the capturing clamps (303) is rotatably connected to a fastening clamp (304), and a locking key (305) is provided on the fastening clamp (304), and each of the locking keys (305) is slidably connected to the fastening clamp (304), and a locking groove is provided on the capturing clamp (303), and the locking key (305) is in sliding contact with the locking groove; The cutting gun (5) comprises a cutting nozzle (501) and a separation frame (502), wherein a first diffusion sheet (503) and a second diffusion sheet (504) are arranged on the separation frame (502), wherein the first diffusion sheet (503) and the second diffusion sheet (504) are rotatably connected to the separation frame (502) via a spring shaft, wherein the separation frame (502) is arranged on the cutting nozzle (501), wherein an expansion motor (505) is arranged on the separation frame (502), wherein the first diffusion sheet (503) and the second diffusion sheet (504) are connected to an output end of the expansion motor (505) via a steel rope, wherein a plurality of air holes are arranged on the first diffusion sheet (503) and the second diffusion sheet (504), respectively, wherein the first diffusion sheet (503) and the second diffusion sheet (504) are connected to a fuel tank via a gas conduit (6); The separation frame (502) is provided with an oxygen injection pipe (506), the oxygen injection pipe (506) is connected to the oxygen tank through the oxygen supply pipe (7), the oxygen injection pipe (506) is provided with a regulating valve (507), the regulating valve (507) is electrically connected to the control box (10) through a wire, the two sides of the cutting nozzle (501) are respectively rotatably connected with return air blades (508), each of the return air blades (508) is respectively provided with a wind sensing spring piece (509), the cutting nozzle (501) is provided with a return air switch (510) near the return air blade (508), and the wind sensing spring piece (509) and the return air switch (510) are electrically connected to the control box (10) through a wire; The cutting nozzle (501) is provided with a feedback network (511), and a plurality of feedback boxes (512) are provided on the feedback network (511), and each feedback box (512) is provided with a feedback diaphragm (513), and each feedback box (512) is provided with a feedback spring (514) and a feedback switch (515), and two ends of the feedback spring (514) respectively abut against the feedback diaphragm (513) and the feedback switch (515), and each feedback switch (515) is electrically connected to the control box (10) through a wire, and the control box (10) controls the stroke of the expansion motor (505) through the wire.

2. The flame cutting device with multi-point synchronous cutting function according to claim 1, characterized in that: The composite frame (2) is provided with a moving motor (201) and a moving groove, the cutting mounting frame (1) is provided with a supporting guide rail (101), the moving motor (201) is provided in the moving groove, the output end of the moving motor (201) is provided with a moving gear (202), the supporting guide rail (101) is provided with teeth, the moving gear (202) meshes with the teeth on the supporting guide rail (101), the composite frame (2) is provided with a plurality of mounting grooves, each of the compensating mounting frames (3) is respectively provided in a corresponding mounting groove, and the mounting groove and the compensating mounting frame (3) are detachably connected.

3. The flame cutting device with multi-point synchronous cutting function according to claim 1, characterized in that: The capture clamp (303) and the fastening clamp (304) are respectively provided with a plurality of compensation grooves (306), each of the compensation grooves (306) is respectively provided with a compensation wheel (307) and a compensation spring sheet (308), each compensation wheel (307) is respectively slidably connected with the corresponding compensation groove (306), the compensation wheel (307) is provided with a pressing inclined groove, the compensation spring sheet (308) is pressed against the corresponding pressing inclined groove, a bearing is provided on the supporting end of the compensation wheel (307), the connecting shaft on the fastening clamp (304) and the capture clamp (303) is an electric shaft, and the connecting shaft is electrically connected to the control box (10) through a wire.

4. The flame cutting device with multi-point synchronous cutting function according to claim 1, characterized in that: The multi-point positioning frame (4) is provided with a plurality of adjustment frames (401), the cutting nozzle (501) passes through the adjustment frames (401) and is detachably connected to the adjustment frames (401), the multi-point positioning frame (4) is provided with an adjustment rack (402), the adjustment rack (402) is slidably connected to the multi-point positioning frame (4), the multi-point positioning frame (4) is provided with an adjustment motor (403), and the teeth on the adjustment rack (402) are meshed with the teeth on the output end of the adjustment motor (403) and the adjustment frame (401).

5. The flame cutting device with multi-point synchronous cutting function according to claim 4, characterized in that: The following frame (8) is provided with a plurality of following grooves (801), the positions of the following grooves (801) correspond to the positions of the adjustment frame (401), the wind focusing ring (9) is provided with a fan blade (901), the fan blade (901) is rotatably connected to the wind focusing ring (9), the following frame (8) is provided with a following rack (802) and a following motor (803), the following rack (802) is slidably connected to the following frame (8), the teeth on the following rack (802) are meshed with the teeth on the output end of the following motor (803) and the wind focusing ring (9), and the following motor (803) and the wind focusing ring (9) are electrically connected to the control box (10) via a wire.

Images