Rotary type stainless steel cutting and blanking equipment and method
The problem of center of gravity shift after cutting stainless steel was solved by using an anti-eccentric fixing device and a buffer-type feeding device. Combined with a chip collection device, safety and effective chip handling were achieved, ensuring the safety and efficiency of the cutting process.
Patent Information
- Application Number
- CN202511577336.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-10-31
- Publication Date
- 2025-12-12
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
When stainless steel is cut in half, the center of gravity shifts, creating a safety hazard, and iron filings are difficult to collect effectively during the cutting process.
An anti-eccentric fixing device and a buffer-type feeding device are adopted to prevent stainless steel from shifting by extending the clamping area, increasing friction, setting a limiting structure and elastic contact; combined with a chip collection device, iron chips are collected in a concentrated manner through arc-shaped holes and inclined scrapers.
It effectively prevents stainless steel from detaching after cutting due to a shift in the center of gravity, ensuring safety, and enables centralized collection and processing of iron filings, preventing them from scattering everywhere.
Smart Images
Figure CN121104192A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of stainless steel cutting and blanking technology, specifically to a rotary stainless steel cutting and blanking device and method. Background Technology
[0002] Stainless steel is a type of iron-based alloy with a chromium content of ≥10.5% and corrosion resistance. Its core advantage is its rust resistance, and it is widely used in construction, industry, and home furnishing. Cutting is a particularly important step in the processing of stainless steel. Rotary stainless steel cutting is a processing method that achieves cutting by rotating the cutter or workpiece in conjunction with the feed motion. It is specially designed to deal with the high strength and easy sticking characteristics of stainless steel. Its core is to use the cutting force generated by rotation, combined with reasonable parameter control (such as the rotation speed adapted to the material diameter and the stepped feed speed) and cooling and lubrication to achieve efficient cutting. Rotary saw blade cutting is the mainstream method of efficient and economical stainless steel cutting processing. It achieves material cutting by the cutting force generated by the high-speed rotation of the saw blade, and is especially suitable for batch cutting of profiles such as round bars, square tubes, and rectangular tubes. When stainless steel is cut in half, the center of gravity of the stainless steel shifts, causing the stainless steel to detach from the fixed area on one side and fall downwards, posing a safety hazard. Therefore, we have proposed a rotary stainless steel cutting and feeding device and method. Summary of the Invention
[0003] To solve the above technical problems, the present invention provides a rotary stainless steel cutting and feeding device and method, including an I-shaped slide plate, a circular saw cutter fixedly connected to the bottom of the I-shaped slide plate, a hanging electric slide rail slidably connected to the outer side of the I-shaped slide plate, fixed docking plates fixedly connected to both sides of the hanging electric slide rail, a vertical electric slide rail fixedly connected to the bottom of the fixed docking plate, a sleeve slide plate sleeved and slidably connected to the outer side of the vertical electric slide rail, a side fixing plate fixedly connected to one side of the sleeve slide plate, a synchronous frequency motor fixedly connected to the side fixing plate near the sleeve slide plate, the drive shaft of the synchronous frequency motor passing through the side fixing plate and fixedly connected to a square docking plate, an anti-eccentric fixing device fixedly connected to the outer side of the square docking plate, a buffer feeding device fixedly connected to the bottom of the side fixing plate, and a chip collection device fixedly connected to both sides of the buffer feeding device. The anti-eccentric fixing device includes a first clamping plate, with curved sliders fixedly connected to the top and bottom of the first clamping plate. A transverse electric slide rail is slidably connected to the side of the curved slider away from the first clamping plate. A side connecting rod is fixedly connected to one side of the first clamping plate, and a second clamping plate is fixedly connected to the end of the side connecting rod away from the first clamping plate. The side connecting rod and the second clamping plate are provided on one side of the first clamping plate to extend the clamping area of the stainless steel material. One side of the square docking plate is rotatably connected to one side of the side fixing plate by a rotating bolt, and one side of the transverse electric slide rail is fixedly connected to the outside of the square docking plate. There are two first clamping plates, and the two first clamping plates are symmetrically distributed on one side of the square docking plate. The inner side of the second clamping plate is fixedly connected with a built-in plastic pad. By setting the built-in plastic pad on the inner side of the first and second clamping plates, it makes elastic contact with the stainless steel material and increases the friction. The outer side of the side connecting rod is slidably connected with a limiting rod. By setting multiple limiting rods between the first and second clamping plates, the inclined stainless steel material is blocked. Both ends of the limiting rod are fixedly connected with limiting round blocks. By setting limiting round blocks at both ends of the limiting rod, the limiting rod will not detach from the side connecting rod. The inner side of the first clamping plate is fixedly connected to the outer side of the built-in plastic pad. Multiple built-in plastic pads are provided, and the multiple built-in plastic pads are respectively distributed on the inner side of the first clamping plate and the second clamping plate. Multiple limiting rods are provided, and the multiple limiting rods are distributed between the first clamping plate and the second clamping plate.
[0004] Furthermore, the buffer-type feeding device includes a bottom extension plate, with a tension spring fixedly connected to the top of the bottom extension plate. A concave bottom support plate is fixedly connected to the top of the tension spring. After the concave bottom support plate loses pressure, it is pushed upwards by the tension of the spring to a position close to the cutting area. A bidirectional arc hole is formed on the inner side of the concave bottom support plate. Iron filings falling into the concave bottom support plate enter the bidirectional arc hole and slide down into the chip collection device. A T-shaped sliding plate is fixedly connected to the bottom of the concave bottom support plate. Curved limiting plates are slidably connected to both sides of the T-shaped sliding plate. By setting a sliding plate at the bottom of the concave bottom support plate... The T-shaped sliding plate and curved limiting plate are used to cover and protect the bottom two sides of the concave base plate. The top of the bottom extension plate is fixedly connected to the bottom of the side fixing plate. The top of the bottom extension plate is fixedly connected to the bottom of the chip collection device. One side of the curved limiting plate is fixedly connected to one side of the chip collection device. Multiple extension springs are provided and distributed between the bottom extension plate and the concave base plate. Two T-shaped sliding plates are provided and symmetrically distributed on the bottom of the concave base plate. The bidirectional arc hole is an arc-shaped hole that extends from the inner side of the concave base plate to both sides.
[0005] Furthermore, the chip collection device includes a side-connecting long plate, the top of which is fixedly connected to a frame-shaped surrounding plate. The falling iron chips are collected by setting the side-connecting long plate and the frame-shaped surrounding plate on both sides of the concave bottom support plate. A vertical fixing plate is fixedly connected to the top of the frame-shaped surrounding plate, and an electric long slide rail is fixedly connected to one side of the vertical fixing plate. A bottom sliding rod is slidably connected to the bottom of the electric long slide rail, and a sloping scraper is fixedly connected to the bottom of the bottom sliding rod. When the sloping scraper moves along the path of the electric long slide rail towards the concave receiving plate, it pushes the side-connecting long plate... Iron filings accumulated on the long plate move to the concave receiving plate. The inclined surface of the sloping scraper contacts the accumulated iron filings, causing the iron filings to be pushed across the inclined surface and move to the other side of the sloping scraper. The concave receiving plate is slidably connected to the inner side of the frame-shaped enclosure. A circular handle is fixedly connected to the inner side of the concave receiving plate. The bottom of the side connecting long plate is fixedly connected to the top of the bottom connecting long plate. One side of the side connecting long plate is fixedly connected to one side of the curved limiting plate. The top of the side connecting long plate is slidably connected to the bottom of the sloping scraper. The inner side of the frame-shaped enclosure is slidably connected to the outer side of the sloping scraper.
[0006] A method for cutting and blanking stainless steel materials using a rotary process includes the following steps: S1: Place the material. The stainless steel material to be processed is placed between two anti-eccentric fixing devices by an electric robotic arm and clamped and fixed by the anti-eccentric fixing devices. S2: Position adjustment. The I-shaped slide plate is driven by the hanging electric slide rail to move the circular saw cutting machine to the position to be cut. At the same time, the sleeve slide plate is driven by the vertical electric slide rail to move the stainless steel material fixed on one side of the side fixing plate upwards and closer to the circular saw cutting machine. S3: Rotary cutting. When the stainless steel material moves up to near the circular saw cutting machine as the vertical electric slide rail is adjusted, the synchronous motor is started to drive the square docking plate to rotate, so that the stainless steel material fixed on one side of the square docking plate begins to rotate. At this time, the stainless steel material continues to move up through the vertical electric slide rail until it contacts the circular saw cutting machine for rotary cutting of the steel. S4: Chip collection. The iron chips generated during the circular saw cutting process will fall downwards into the chip collection device and be collected and processed in the same way. S5: Buffer feeding. After the stainless steel material is cut in half, the anti-eccentric fixing device is released from the stainless steel material, causing the stainless steel material with the changed center of gravity to tilt and slide onto the buffer feeding device and slowly move away from the cutting area.
[0007] This invention provides a rotary stainless steel cutting and blanking device and method. It has the following beneficial effects: 1. The rotary stainless steel cutting and feeding equipment and method extends the clamping area of the stainless steel by setting a side connecting rod and a second clamping plate on one side of the first clamping plate. This prevents the stainless steel from shifting its center of gravity after being cut in half, causing it to detach directly from the first clamping plate and creating a safety hazard. After the concave bottom plate loses pressure, it is pushed upward by the extension force of the extension spring to a position close to the cutting area. This prevents the stainless steel from being too far from the cutting area, making it difficult for it to fall smoothly onto the concave bottom plate. By setting side connecting plates and frame-shaped surrounding plates on both sides of the concave bottom plate, the falling iron filings are collected in a concentrated manner, preventing a large number of iron filings falling from a height during the cutting process from being scattered and difficult to be collected and processed in the same way.
[0008] 2. The rotary stainless steel cutting and blanking equipment and method are equipped with an anti-eccentricity fixing device. By setting a side connecting rod and a second clamping plate on one side of the first clamping plate, the clamping area of the stainless steel is extended to prevent the center of gravity of the stainless steel from shifting after it is cut in half, which could cause the stainless steel to detach directly from the first clamping plate and create a safety hazard. By setting built-in plastic pads on the inner side of the first and second clamping plates to make elastic contact with the stainless steel and increase friction, it is possible to prevent slippage and deviation when clamping relatively smooth stainless steel, which could affect the cutting effect. By setting multiple limiting rods between the first and second clamping plates, the inclined stainless steel is resisted, preventing the first and second clamping plates from loosening due to the center of gravity shift when the stainless steel is completely cut, which could cause the stainless steel to sway left and right. By setting limiting blocks at both ends of the limiting rods, the limiting rods will not detach from the side connecting rods, preventing the limiting rods that slide through the side connecting rods and slide in cooperation with them from sliding relative to the side connecting rods and detaching directly from them.
[0009] 3. The rotary stainless steel cutting and feeding equipment and method are equipped with a buffer feeding device. After the concave bottom plate loses pressure, it is pushed upward by the extension force of the extension spring to a position close to the cutting area. This prevents the stainless steel material from falling too far from the cutting area and making it difficult to fall smoothly onto the concave bottom plate. The arc surface of the bidirectional arc hole guides the iron chips into the chip collection device, preventing excessive iron chips from accumulating on the inner side of the concave bottom plate after multiple cutting processes, which would affect the subsequent placement of stainless steel material. By setting a sliding T-shaped slide plate and a curved limiting plate at the bottom of the concave bottom plate, the bottom two sides of the concave bottom plate are covered and protected, preventing the iron chips sliding out of the bidirectional arc hole from accumulating in the bottom area of the concave bottom plate and becoming difficult to handle.
[0010] 4. The rotary stainless steel cutting and feeding equipment and method is equipped with a chip collection device. By setting side connecting plates and frame-shaped surrounding plates on both sides of the concave bottom support plate, the falling iron chips are collected in a concentrated manner, preventing a large number of iron chips falling from a height during the cutting process from being scattered and difficult to collect and process at the same time. The iron chips on the side connecting plates are pushed onto the concave receiving plate by the inclined scraper for easy processing, preventing the falling iron chips from continuously accumulating in the frame-shaped surrounding plate until they overflow and become difficult to process. The inclined surface of the inclined scraper contacts the accumulated iron chips, causing the iron chips to be pushed over the inclined surface and move to the other side of the inclined scraper, preventing the iron chips on the side connecting plates located on one side of the inclined scraper from continuously accumulating and overflowing outward from the vertical fixed plate position when pushed. Attached Figure Description
[0011] Figure 1 This is a schematic diagram of the cutting and feeding device of the present invention; Figure 2 This is a schematic diagram of the bottom structure of the cutting and feeding device of the present invention; Figure 3 This is a schematic diagram of the anti-eccentricity fixing device of the present invention; Figure 4 This is a schematic diagram of the bottom structure of the anti-eccentricity fixing device of the present invention; Figure 5 This is a schematic diagram of the buffer-type feeding device of the present invention; Figure 6 This is a partial side sectional view of the buffer feeding device of the present invention; Figure 7 This is a schematic diagram of the debris collection device of the present invention; Figure 8 This is a schematic diagram of the second structure of the debris collection device of the present invention; Figure 9 This is a schematic diagram of the stainless steel material cutting and blanking method of the present invention.
[0012] In the diagram: 1. I-shaped sliding plate; 2. Circular saw cutting machine; 3. Hanging electric slide rail; 4. Fixed docking plate; 5. Vertical electric slide rail; 6. Sleeve sliding plate; 7. Side fixing plate; 8. Same frequency motor; 9. Square docking plate; 10. Anti-eccentric fixing device; 11. Buffer-type feeding device; 12. Chip collection device; 1001. First clamping plate; 1002. Curved slider; 1003. Transverse electric slide rail; 1004. Side connecting rod; 1005. Second clamping plate; 1006. Built-in plastic pad; 1007. Limiting rod; 1008. Limiting block; 1101. Bottom extension plate; 1102. Extension spring; 1103. Concave bottom support plate; 1104. Bidirectional arc hole; 1105. T-shaped sliding plate; 1106. Curved limiting plate; 1201. Side extension plate; 1202. Frame-shaped enclosure plate; 1203. Vertical fixing plate; 1204. Electric long slide rail; 1205. Bottom sliding rod; 1206. Angled scraper; 1207. Concave receiving plate; 1208. Circular grip bar. Detailed Implementation
[0013] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0014] Please see Figures 1-4 This invention provides a rotary stainless steel cutting and feeding device and method, including an I-shaped slide plate 1, a circular saw cutter 2 fixedly connected to the bottom of the I-shaped slide plate 1, a hanging electric slide rail 3 slidably connected to the outer side of the I-shaped slide plate 1, fixed docking plates 4 fixedly connected to both sides of the hanging electric slide rail 3, a vertical electric slide rail 5 fixedly connected to the bottom of the fixed docking plate 4, a sleeve slide plate 6 sleeved and slidably connected to the outer side of the vertical electric slide rail 5, a side fixing plate 7 fixedly connected to one side of the sleeve slide plate 6, a synchronous motor 8 fixedly connected to the side of the side fixing plate 7 near the sleeve slide plate 6, the drive shaft of the synchronous motor 8 passing through the side fixing plate 7 and fixedly connected to a square docking plate 9, an anti-eccentric fixing device 10 fixedly connected to the outer side of the square docking plate 9, a buffer feeding device 11 fixedly connected to the bottom of the side fixing plate 7, and a chip collection device 12 fixedly connected to both sides of the buffer feeding device 11. The anti-eccentricity fixing device 10 includes a first clamping plate 1001, a curved slider 1002 fixedly connected to the top and bottom of the first clamping plate 1001, a transverse electric slide rail 1003 slidably connected to the side of the curved slider 1002 away from the first clamping plate 1001, a side connecting rod 1004 fixedly connected to one side of the first clamping plate 1001, and a second clamping plate 1005 fixedly connected to the end of the side connecting rod 1004 away from the first clamping plate 1001. One side of the square docking plate 9 is rotatably connected to one side of the side fixing plate 7 by a rotating bolt. One side of the transverse electric slide rail 1003 is fixedly connected to the outside of the square docking plate 9. Two first clamping plates 1001 are provided, and the two first clamping plates 1001 are symmetrically distributed on one side of the square docking plate 9. The inner side of the second clamping plate 1005 is fixedly connected to a built-in plastic pad 1006, and the outer side of the side connecting rod 1004 is slidably connected to a limiting rod 1007. Both ends of the limiting rod 1007 are fixedly connected to limiting round blocks 1008. The inner side of the first clamping plate 1001 is fixedly connected to the outer side of the built-in plastic pad 1006. Multiple built-in plastic pads 1006 are provided, and are distributed on the inner sides of the first clamping plate 1001 and the second clamping plate 1005. Multiple limiting rods 1007 are provided, and are distributed between the first clamping plate 1001 and the second clamping plate 1005. In use, the stainless steel material to be processed is placed between two anti-eccentric fixing devices 10 by an electric robotic arm, and the stainless steel material is clamped and fixed by the anti-eccentric fixing devices 10. The I-shaped sliding plate 1 is driven by the suspended electric slide rail 3 to move the circular saw cutting machine 2 to the position to be cut. At the same time, the sleeve sliding plate 6 is driven by the vertical electric slide rail 5 to move the side-connected fixing. The stainless steel material fixed on one side of plate 7 moves upward and approaches the circular saw cutting machine 2. When the stainless steel material moves upward and approaches the circular saw cutting machine 2 with the adjustment of the vertical electric slide rail 5, the synchronous frequency motor 8 is started to drive the square docking plate 9 to rotate, so that the stainless steel material fixed on one side of the square docking plate 9 begins to rotate. At this time, the stainless steel material continues to move upward through the vertical electric slide rail 5 to contact the circular saw cutting machine 2 for rotary cutting of the steel. The iron chips generated by the circular saw cutting machine 2 will fall downward into the chip collection device 12 for collection and treatment. After the stainless steel material is cut into two halves, the anti-eccentric fixing device 10 is released from fixing the stainless steel material, so that the stainless steel material with the changed center of gravity tilts and slides onto the buffer feeding device 11 and slowly moves downward away from the cutting area. The stainless steel material to be processed is placed between two symmetrically arranged first clamping plates 1001 and second clamping plates 1005. The two symmetrically arranged first clamping plates 1001 and second clamping plates 1005 are driven to move towards each other via a transverse electric slide rail 1003. As the first clamping plates 1001 and second clamping plates 1005 move towards each other, the inner plastic pads 1006 continuously move closer to the stainless steel material until they contact the material. After contact, the inner plastic pads 1006 clamp and fix the stainless steel material from both sides using a compression clamping method. A side connecting rod 1004 and a second clamping plate 1005 are provided on one side to extend the clamping area of the stainless steel material. An internal plastic pad 1006 is provided on the inner side of the first clamping plate 1001 and the second clamping plate 1005 to make elastic contact with the stainless steel material and increase the friction. Multiple limiting rods 1007 are provided between the first clamping plate 1001 and the second clamping plate 1005 to resist the tilting stainless steel material. Limiting round blocks 1008 are provided at both ends of the limiting rods 1007 to prevent the limiting rods 1007 from disengaging from the side connecting rod 1004.
[0015] Please see Figures 5-9 This invention provides a rotary stainless steel cutting and feeding device and method: a buffer feeding device 11 includes a bottom extension plate 1101, a tension spring 1102 fixedly connected to the top of the bottom extension plate 1101, a concave bottom support plate 1103 fixedly connected to the top of the tension spring 1102, a bidirectional arc hole 1104 opened on the inner side of the concave bottom support plate 1103, a T-shaped sliding plate 1105 fixedly connected to the bottom of the concave bottom support plate 1103, curved limiting plates 1106 slidably connected to both sides of the T-shaped sliding plate 1105, and a side fixing plate 7 connected to the top of the bottom extension plate 1101. The bottom is fixedly connected, the top of the bottom extension plate 1101 is fixedly connected to the bottom of the chip collection device 12, one side of the curved limiting plate 1106 is fixedly connected to one side of the chip collection device 12, multiple extension springs 1102 are provided, and multiple extension springs 1102 are distributed between the bottom extension plate 1101 and the concave bottom support plate 1103, two T-shaped sliding plates 1105 are provided, and the two T-shaped sliding plates 1105 are symmetrically distributed on the bottom of the concave bottom support plate 1103, and the bidirectional arc hole 1104 is set as an arc hole extending through from the inner side of the concave bottom support plate 1103 to both sides; The chip collection device 12 includes a side-connecting long plate 1201, a frame-shaped enclosure plate 1202 fixedly connected to the top of the side-connecting long plate 1201, a vertical fixing plate 1203 fixedly connected to the top of the frame-shaped enclosure plate 1202, an electric long slide rail 1204 fixedly connected to one side of the vertical fixing plate 1203, a bottom sliding rod 1205 slidably connected to the bottom of the electric long slide rail 1204, a sloped scraper 1206 fixedly connected to the bottom of the bottom sliding rod 1205, a concave receiving plate 1207 slidably connected to the inner side of the frame-shaped enclosure plate 1202, a circular handle 1208 fixedly connected to the inner side of the concave receiving plate 1207, the bottom of the side-connecting long plate 1201 fixedly connected to the top of the bottom-connecting long plate 1101, and one side of the side-connecting long plate 1201 fixedly connected to a curved limiting plate. One side of 1106 is fixedly connected, the top of the side connecting plate 1201 is slidably connected to the bottom of the inclined scraper 1206, and the inner side of the frame-shaped surrounding plate 1202 is slidably connected to the outer side of the inclined scraper 1206. In use, after the first clamping plate 1001 and the second clamping plate 1005 release their clamping and fixing of the stainless steel material, the cut stainless steel material tilts downward and gradually slides down to the inner side of the concave bottom support plate 1103. The stainless steel material falling on the concave bottom support plate 1103 pushes the concave bottom support plate 1103 downward and compresses the extension spring 1102. At the same time, the concave bottom support plate 1103 pushes the bottom T-shaped sliding plate 1105 downward together. Under the influence of the pressure of the stainless steel material, the concave bottom support plate 1103 moves downward to a position away from the cutting area. Then, the electric robotic arm directly places the subsequent stainless steel material. When the next piece of stainless steel is cut, the electric robotic arm unloads the cut stainless steel material from the concave bottom support plate 1103. After the concave bottom support plate 1103 loses pressure, it is pushed upward by the extension force of the extension spring 1102 to a position close to the cutting area. At the same time, the iron filings generated when the stainless steel is cut fall into the concave bottom support plate 1103 or the chip collection device 12. The iron filings falling into the concave bottom support plate 1103 enter the bidirectional arc hole 1104 and slide from the bidirectional arc hole 1104 into the chip collection device 12. The arc surface of the bidirectional arc hole 1104 guides the iron filings into the chip collection device 12. 03. A sliding T-shaped slide plate 1105 and a curved limiting plate 1106 are provided at the bottom to cover and protect the two sides of the bottom of the concave bottom support plate 1103. Side connecting plates 1201 and frame-shaped surrounding plates 1202 are provided on both sides of the concave bottom support plate 1103 to collect the falling iron filings. At the same time, the bottom sliding rod 1205 is driven by the electric long slide rail 1204 to move the inclined scraper 1206. When the inclined scraper 1206 moves along the path of the electric long slide rail 1204 towards the concave receiving plate 1207, it pushes the iron filings accumulated on the side connecting plates 1201 onto the concave receiving plate 1207. The inclined scraper 1206 pushes the iron filings on the side connecting plates 1201 onto the concave receiving plate 1207 for easy processing.As the inclined scraper 1206 moves along the path of the electric long slide rail 1204 away from the concave receiving plate 1207, the inclined surface of the scraper 1206 contacts the accumulated iron filings, causing the iron filings to be pushed across the inclined surface and move to the other side of the scraper 1206. When too many iron filings are collected on the concave receiving plate 1207, the concave receiving plate 1207 can be directly removed by the circular handle 1208 for centralized processing of the iron filings.
[0016] A method for cutting and blanking stainless steel materials using a rotary process includes the following steps: S1: Place the material. The stainless steel material to be processed is placed between two anti-eccentric fixing devices 10 by the electric robotic arm and the stainless steel material is clamped and fixed by the anti-eccentric fixing devices 10. S2: Position adjustment, the I-shaped slide plate 1 is driven by the hanging electric slide rail 3 to move the circular saw cutting machine 2 to the position to be cut, and at the same time the sleeve slide plate 6 is driven by the vertical electric slide rail 5 to move the stainless steel material fixed on one side of the side fixing plate 7 to move up and closer to the circular saw cutting machine 2. S3: Rotary cutting. When the stainless steel material moves up to near the circular saw cutting machine 2 as the vertical electric slide rail 5 is adjusted, the same frequency motor 8 is started to drive the square docking plate 9 to rotate, so that the stainless steel material fixed on one side of the square docking plate 9 begins to rotate. At this time, the stainless steel material continues to move up to contact the circular saw cutting machine 2 through the vertical electric slide rail 5 to perform rotary cutting of the steel. S4: Chip collection. The iron chips generated during the cutting of the circular saw 2 will fall downwards into the chip collection device 12 and be collected and processed in the same way. S5: Buffer feeding. After the stainless steel material is cut into two halves, the anti-eccentric fixing device 10 is released from fixing the stainless steel material, so that the stainless steel material with the changed center of gravity tilts and slides onto the buffer feeding device 11 and slowly moves away from the cutting area.
[0017] In operation, the stainless steel material to be processed is placed between two anti-eccentric fixing devices 10 by an electric robotic arm, and the stainless steel material is clamped and fixed by the anti-eccentric fixing devices 10. The I-shaped slide plate 1 is driven by the hanging electric slide rail 3 to slide and move the circular saw cutting machine 2 to the position to be cut. At the same time, the sleeve slide plate 6 is driven by the vertical electric slide rail 5 to move the stainless steel material fixed on one side of the side fixing plate 7 upward and closer to the circular saw cutting machine 2. When the stainless steel material moves upward and close to the circular saw cutting machine 2 as the vertical electric slide rail 5 is adjusted, the synchronous frequency motor 8 is started. The square docking plate 9 is rotated, causing the stainless steel material fixed on one side of the square docking plate 9 to start rotating. At this time, the stainless steel material is moved up by the vertical electric slide rail 5 until it contacts the circular saw cutting machine 2 for rotary cutting of the steel. The iron chips generated by the circular saw cutting machine 2 will fall down into the chip collection device 12 and be collected and processed together. After the stainless steel material is cut into two halves, the anti-eccentric fixing device 10 is released from fixing the stainless steel material, so that the stainless steel material with the changed center of gravity tilts and slides onto the buffer feeding device 11 and slowly moves down away from the cutting area. The stainless steel material to be processed is placed between two symmetrically arranged first clamping plates 1001 and second clamping plates 1005. The two symmetrically arranged first clamping plates 1001 and second clamping plates 1005 are driven to move towards each other via a transverse electric slide rail 1003. As the first clamping plates 1001 and second clamping plates 1005 move towards each other, the inner plastic pads 1006 continuously move closer to the stainless steel material until they contact the material. Once in contact, the inner plastic pads 1006 clamp and fix the stainless steel material by compression from both sides. The clamping area of the stainless steel material is extended by providing a side connecting rod 1004 on one side of the first clamping plate 1001 and a second clamping plate 1005. The inner plastic pads 1006 are located on the inner sides of the first clamping plates 1001 and second clamping plates 1005. 6. The stainless steel material is brought into elastic contact to increase friction. Multiple limiting rods 1007 are installed between the first clamping plate 1001 and the second clamping plate 1005 to resist the tilting stainless steel material. Limiting round blocks 1008 are installed at both ends of the limiting rods 1007 to prevent them from disengaging from the side connecting rods 1004. After the first clamping plate 1001 and the second clamping plate 1005 release their clamping and fixing of the stainless steel material, the cut stainless steel material tilts downward and gradually slides into the inner side of the concave bottom support plate 1103. The stainless steel material falling on the concave bottom support plate 1103 pushes the concave bottom support plate 1103 downward and compresses the extension spring 1102. At the same time, the concave bottom support plate 1103 pushes the T-shaped sliding plate 11 at the bottom. 05. The concave base plate 1103, under the pressure of the stainless steel material, moves downwards to a position away from the cutting area. Then, the electric robotic arm directly places subsequent stainless steel materials. When the next piece of stainless steel is cut, the electric robotic arm removes the cut stainless steel material from the concave base plate 1103. After the concave base plate 1103 loses pressure, it is pushed upwards by the extension force of the extension spring 1102 to a position close to the cutting area. Simultaneously, the iron filings generated when the stainless steel is cut fall into the concave base plate 1103 or the chip collection device 12. The iron filings falling into the concave base plate 1103 enter the bidirectional arc hole 1104 and slide down from the bidirectional arc hole 1104 into the chip collection device 12. Iron filings are guided into the chip collection device 12 through the arc surface of the bidirectional arc hole 1104. A T-shaped sliding plate 1105 and a curved limiting plate 1106 with sliding fit are installed at the bottom of the concave bottom support plate 1103 to cover and protect the areas on both sides of the bottom. Side connecting plates 1201 and frame-shaped surrounding plates 1202 are installed on both sides of the concave bottom support plate 1103 to collect the falling iron filings. Simultaneously, the inclined scraper 1206 is moved by the bottom sliding rod 1205 driven by the electric long slide rail 1204. As the inclined scraper 1206 moves along the path of the electric long slide rail 1204 towards the concave receiving plate 1207, it pushes the accumulated iron filings on the side connecting plates 1201 onto the concave receiving plate 1207.The scraper 1206 pushes the iron filings on the side plate 1201 onto the concave receiving plate 1207 for easy processing. As the scraper 1206 moves away from the concave receiving plate 1207 along the path of the electric long slide rail 1204, the inclined surface of the scraper 1206 contacts the accumulated iron filings, causing them to be pushed across the inclined surface to the other side of the scraper 1206. When too many iron filings are collected on the concave receiving plate 1207, the concave receiving plate 1207 can be removed directly using the circular handle 1208 for centralized processing of the iron filings.
[0018] Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of the present invention without inventive effort should fall within the scope of protection of the present invention. Structures, devices, and operating methods not specifically described and explained in the present invention, unless otherwise specified or limited, shall be implemented according to conventional means in the art.
Claims
1. A rotary stainless steel cutting and feeding device, comprising an I-shaped sliding plate (1), characterized in that: The bottom of the I-shaped slide plate (1) is fixedly connected to a circular saw (2). The outer side of the I-shaped slide plate (1) is slidably connected to a hanging electric slide rail (3). Both sides of the hanging electric slide rail (3) are fixedly connected to fixed docking plates (4). The bottom of the fixed docking plate (4) is fixedly connected to a vertical electric slide rail (5). The outer side of the vertical electric slide rail (5) is fitted with and slidably connected to a sleeve slide plate (6). One side of the sleeve slide plate (6) is fixedly connected to a side fixing plate (7). The side fixing plate (7) is fixedly connected to a synchronous motor (8) on the side close to the sleeve slide plate (6). The drive shaft of the synchronous motor (8) passes through the side fixing plate (7) and is fixedly connected to a square docking plate (9). The outer side of the square docking plate (9) is fixedly connected to an anti-eccentric fixing device (10). The bottom of the side fixing plate (7) is fixedly connected to a buffer feeding device (11). Both sides of the buffer feeding device (11) are fixedly connected to a chip collection device (12). The anti-eccentricity fixing device (10) includes a first clamping plate (1001), and curved sliders (1002) are fixedly connected to the top and bottom of the first clamping plate (1001). A transverse electric slide rail (1003) is slidably connected to the side of the curved slider (1002) away from the first clamping plate (1001). A side connecting rod (1004) is fixedly connected to one side of the first clamping plate (1001), and a second clamping plate (1005) is fixedly connected to the end of the side connecting rod (1004) away from the first clamping plate (1001).
2. The rotary stainless steel cutting and blanking device according to claim 1, characterized in that: One side of the square docking plate (9) is rotatably connected to one side of the side fixing plate (7) by a rotating bolt. One side of the transverse electric slide rail (1003) is fixedly connected to the outside of the square docking plate (9). There are two first clamping plates (1001), and the two first clamping plates (1001) are symmetrically distributed on one side of the square docking plate (9).
3. The rotary stainless steel cutting and blanking device according to claim 1, characterized in that: The inner side of the second clamping plate (1005) is fixedly connected to a built-in plastic pad (1006), and the outer side of the side connecting rod (1004) is slidably connected to a limiting rod (1007). Both ends of the limiting rod (1007) are fixedly connected to limiting round blocks (1008).
4. The rotary stainless steel cutting and blanking device according to claim 3, characterized in that: The inner side of the first clamping plate (1001) is fixedly connected to the outer side of the built-in plastic pad (1006). Multiple built-in plastic pads (1006) are provided, and the multiple built-in plastic pads (1006) are respectively distributed on the inner side of the first clamping plate (1001) and the second clamping plate (1005). Multiple limiting rods (1007) are provided, and the multiple limiting rods (1007) are distributed between the first clamping plate (1001) and the second clamping plate (1005).
5. The rotary stainless steel cutting and blanking device according to claim 1, characterized in that: The buffer feeding device (11) includes a bottom extension plate (1101), a tension spring (1102) is fixedly connected to the top of the bottom extension plate (1101), a concave bottom support plate (1103) is fixedly connected to the top of the tension spring (1102), a bidirectional arc hole (1104) is opened on the inner side of the concave bottom support plate (1103), a T-shaped sliding plate (1105) is fixedly connected to the bottom of the concave bottom support plate (1103), and curved limiting plates (1106) are slidably connected to both sides of the T-shaped sliding plate (1105).
6. The rotary stainless steel cutting and blanking device according to claim 5, characterized in that: The top of the bottom extension plate (1101) is fixedly connected to the bottom of the side fixing plate (7), the top of the bottom extension plate (1101) is fixedly connected to the bottom of the chip collection device (12), and one side of the curved limiting plate (1106) is fixedly connected to one side of the chip collection device (12).
7. The rotary stainless steel cutting and blanking device according to claim 5, characterized in that: Multiple extension springs (1102) are provided, and the multiple extension springs (1102) are distributed between the bottom extension plate (1101) and the concave bottom support plate (1103). Two T-shaped sliding plates (1105) are provided, and the two T-shaped sliding plates (1105) are symmetrically distributed at the bottom of the concave bottom support plate (1103). The bidirectional arc hole (1104) is configured as an arc-shaped hole extending through from the inner side of the concave bottom support plate (1103) to both sides.
8. The rotary stainless steel cutting and blanking device according to claim 1, characterized in that: The chip collection device (12) includes a side connecting plate (1201), a frame-shaped enclosure plate (1202) is fixedly connected to the top of the side connecting plate (1201), a vertical fixing plate (1203) is fixedly connected to the top of the frame-shaped enclosure plate (1202), an electric long slide rail (1204) is fixedly connected to one side of the vertical fixing plate (1203), a bottom sliding rod (1205) is slidably connected to the bottom of the electric long slide rail (1204), a slope scraper (1206) is fixedly connected to the bottom of the bottom sliding rod (1205), a concave receiving plate (1207) is slidably connected to the inner side of the frame-shaped enclosure plate (1202), and a circular handle (1208) is fixedly connected to the inner side of the concave receiving plate (1207).
9. A rotary stainless steel cutting and blanking device according to claim 8, characterized in that: The bottom of the side connecting plate (1201) is fixedly connected to the top of the bottom connecting plate (1101), one side of the side connecting plate (1201) is fixedly connected to one side of the curved limiting plate (1106), the top of the side connecting plate (1201) is slidably connected to the bottom of the inclined scraper (1206), and the inner side of the frame-shaped enclosure plate (1202) is slidably connected to the outer side of the inclined scraper (1206).
10. A method for cutting and blanking rotary stainless steel materials, characterized in that, It includes the following steps: S1: Place the material. The stainless steel material to be processed is placed between two anti-eccentric fixing devices (10) by an electric robotic arm and the stainless steel material is clamped and fixed by the anti-eccentric fixing devices (10). S2: Position adjustment, drive the I-shaped slide plate (1) through the hanging electric slide rail (3) to move the circular saw cutting machine (2) to the position to be cut, and at the same time drive the sleeve slide plate (6) through the vertical electric slide rail (5) to move the stainless steel material fixed on one side of the side fixing plate (7) to move up and get closer to the circular saw cutting machine (2). S3: Rotary cutting. When the stainless steel material moves up to the circular saw cutting machine (2) as the vertical electric slide rail (5) is adjusted, the same frequency motor (8) is started to drive the square docking plate (9) to rotate, so that the stainless steel material fixed on one side of the square docking plate (9) starts to rotate. At this time, the stainless steel material continues to move up to contact the circular saw cutting machine (2) through the vertical electric slide rail (5) to perform rotary cutting of the steel. S4: Chip collection. The iron chips generated during the cutting of the circular saw (2) will fall downward into the chip collection device (12) and be collected and processed in the same way. S5: Buffer feeding. After the stainless steel material is cut into two halves, the anti-eccentric fixing device (10) is released from fixing the stainless steel material, so that the stainless steel material with the changed center of gravity tilts and slides onto the buffer feeding device (11) and slowly moves away from the cutting area.