Cutting equipment for titanium alloy wire rope machining

Abstract

The invention belongs to the technical field of metal wire rope processing, and particularly relates to cutting equipment for titanium alloy wire rope processing, which comprises a stranding machine and a cutting assembly, the cutting assembly comprises a cylinder arranged on one side of the stranding machine, and a second cutting knife slidably penetrates through the upper end of the middle part of the cylinder; a tool apron slidably penetrates through the position, corresponding to the second cutting knife, of the middle of the cylinder, press-fitting assemblies are arranged on the two sides of the cylinder correspondingly, each press-fitting assembly comprises first arc-shaped extrusion blocks arranged at the upper end and the lower end in the cylinder in a sliding mode, and a first wrapping assembly is arranged between the two first arc-shaped extrusion blocks; the first wrapping assembly comprises a rolled iron sheet rotationally arranged on one side of a cylinder, the end of the iron sheet slidably penetrates into the cylinder, a U-shaped plate is slidably arranged on the side, away from the rolled iron sheet, of the cylinder, and a first arc-shaped extrusion block is driven to extrude the iron sheet on the outer side of the titanium alloy wire rope; the iron sheets wrap and fix the two ends of the cutting position of the titanium alloy wire rope, the automation degree is high, and the working efficiency is improved.

Description

Technical Field

[0001] The present invention belongs to the technical field of wire rope processing, and specifically relates to a cutting device for processing titanium alloy wire ropes. Background Art

[0002] A titanium alloy wire rope is a helical titanium alloy wire bundle formed by twisting titanium alloy wires that meet the requirements of mechanical properties and geometric dimensions together according to certain rules. Titanium alloy wire ropes have high tensile strength and fatigue resistance, can remain stable in various corrosive environments, and are particularly suitable for fields such as petrochemical and photovoltaic.

[0003] A patent application with the publication number CN113579119B discloses a fixed-distance cutting structure for a wire rope processing machine. By arranging two guide rollers with staggered distributions on a workbench, the wire rope is wound around each guide roller in turn. The traveling trajectory of the wire rope is changed through the guide rollers. The wire rope located between the two guide rollers is tangent to the corresponding end faces of the two guide rollers respectively. Thus, through the guidance of the first guide roller, the wire rope passing through the second guide roller will always travel at an angle tangent to the guide roller. Under the traction of the driving roller, the wire rope always travels in a straight line, ensuring the accuracy during measurement.

[0004] In the above-mentioned prior art, after the titanium alloy wire rope is processed, it needs to be wound up to facilitate subsequent packaging and transportation. When a certain number of titanium alloy wire ropes are wound up, the titanium alloy wire rope needs to be cut off. Since the titanium alloy wire rope is composed of multiple strands of titanium alloy wires twisted together, the end of the titanium alloy wire rope will become loose after cutting. The prior art generally uses buckles to clamp and fix the end of the cut titanium alloy wire rope to prevent it from becoming loose. The prior art requires manual fixation by workers, and the degree of automation is low, resulting in low work efficiency.

[0005] Therefore, the present invention provides a cutting device for processing titanium alloy wire ropes. Summary of the Invention

[0006] In order to make up for the deficiencies of the prior art and solve at least one of the technical problems proposed in the background art.

[0007] The technical solution adopted by the present invention to solve its technical problems is as follows: A cutting device for processing titanium alloy wire ropes according to the present invention includes a stranding machine for stranding the titanium alloy wire ropes. A cutting assembly is provided on one side of the stranding machine. The cutting assembly includes a cylinder provided on one side of the stranding machine. A second cutting knife slidably penetrates through the upper end of the middle part of the cylinder, and a tool holder slidably penetrates through the position corresponding to the second cutting knife in the middle part of the cylinder. The cutting assembly is used for cutting the titanium alloy wire ropes. Pressing assemblies are respectively provided on both sides of the cylinder. The pressing assemblies include first arc-shaped extrusion blocks slidably arranged at the upper and lower ends inside the cylinder. A first coating assembly is provided between the two first arc-shaped extrusion blocks. The first coating assembly includes a coiled iron sheet rotatably arranged on one side of the cylinder. The end of the iron sheet slidably penetrates into the inside of the cylinder. A U-shaped plate is slidably arranged on the side of the cylinder away from the coiled iron sheet.

[0008] Preferably, both sides of the cylinder are fixedly connected to the upper end of the bottom plate through first rectangular plates. The coiled iron sheet is rotatably arranged on one side of the cylinder through a first fixing strip. Two groups of first conveyor wheels are respectively rotatably arranged at both ends inside the cylinder. The first coating assembly further includes two second conveyor wheels rotatably arranged on the side of the cylinder close to the coiled iron sheet inside the cylinder. The second conveyor wheels are rotatably arranged inside the cylinder through U-shaped strips. The second conveyor wheels are used for conveying the iron sheet.

[0009] Preferably, second fixing strips are respectively fixedly connected to one side of the two U-shaped plates. A third fixing strip is fixedly connected to the common side of the second fixing strips. A first electric telescopic rod is fixedly connected to the upper end of the first rectangular plate. The output end of the first electric telescopic rod is fixedly connected to the third fixing strip.

[0010] Preferably, a first cutting assembly is provided on one side of the lower end of the upper first arc-shaped extrusion block. The first cutting assembly includes a rectangular groove provided on one side of the lower end of the first arc-shaped extrusion block. A rectangular slider is slidably arranged on one side inside the rectangular groove. A first cutting knife is slidably arranged on the other side inside the rectangular groove. The first cutting knife is located above the rectangular slider. The rectangular slider is fixedly connected to the inside of the rectangular groove through a first spring. First waist-shaped blocks are respectively slidably arranged on both sides of the rectangular slider. The ends of the first waist-shaped blocks away from the rectangular slider are respectively slidably arranged on both sides of the first cutting knife. The first waist-shaped blocks are respectively rotatably arranged on both sides inside the rectangular groove.

[0011] Preferably, rectangular cylinders are fixedly connected to the sides of the first arc-shaped extrusion blocks away from the titanium alloy wire ropes. A first rectangular bar is slidably arranged inside the rectangular cylinder. The first rectangular bar is fixedly connected to the inside of the rectangular cylinder through a second spring. A second rectangular bar is fixedly connected to the ends of the two opposite first rectangular bars away from the rectangular cylinder. A fourth rectangular bar is fixedly connected to one side of the second rectangular bar through a third rectangular bar. A bidirectional lead screw is commonly threadedly connected to the middle parts of the two fourth rectangular bars. The middle part of the bidirectional lead screw is rotatably arranged on one side of the cylinder through a first rectangular block. The lower end of the bidirectional lead screw is fixedly connected to the output end of a motor. The motor is fixedly connected to one side of a first rectangular plate through a fixing block.

[0012] Preferably, cylindrical bars are fixedly connected to both sides of the opposite ends of the second cutting knife and the tool holder. The cylindrical bars respectively slide through the middle parts of the second rectangular bars. A second waist-shaped block is fixedly connected to the ends of the two cylindrical bars on the opposite side. Third springs are respectively arranged at the upper and lower ends of the second rectangular bar. The third springs are respectively sleeved on the outer sides of the cylindrical bars.

[0013] Preferably, a fixing assembly is arranged on the side of the cylinder away from the strander. The fixing assembly includes two arc-shaped electric slide rails arranged on one side of the cylinder. The arc-shaped electric slide rails are fixedly connected to the upper end of the bottom plate through a second rectangular plate. Two third conveyor wheels are respectively rotatably arranged on both sides of the upper ends of the arc-shaped electric slide rails. The two third conveyor wheels close to the cylinder side are slidably arranged between the two arc-shaped electric slide rails. A second covering assembly is arranged on one side of the upper end of the arc-shaped electric slide rail. The second covering assembly has the same structure as the first covering assembly. A third arc-shaped extrusion block is slidably arranged at the upper end of the second covering assembly. A second arc-shaped extrusion block is slidably arranged at the lower end of the second covering assembly. A cylindrical block is slidably arranged in the middle of the upper end of the arc-shaped electric slide rail. The cylindrical block is located at the lower end of the titanium alloy wire rope. One side of the cylindrical block is fixedly connected to the output end of a second electric telescopic rod. The second electric telescopic rod is fixedly connected to one side of the second rectangular plate through an L-shaped bar.

[0014] Preferably, a fifth rectangular bar is fixedly connected to the upper end of the third arc-shaped extrusion block. A rectangular frame is fixedly connected to one side of the fifth rectangular bar. A second electric slide rail is commonly fixedly connected to one side of the upper ends of the two arc-shaped electric slide rails. The rectangular frame is slidably arranged on one side of the second electric slide rail. A T-shaped block is fixedly connected to the lower end of the second arc-shaped extrusion block. A first electric slide rail is fixedly connected to one side of the second rectangular plate. The T-shaped block is slidably arranged on one side of the first electric slide rail.

[0015] Preferably, a second cutting component is arranged on one side of the lower end of the third arc-shaped extrusion block. The second cutting component has the same structure as the first cutting component.

[0016] Preferably, a winding machine is arranged on the side of the fixing assembly away from the cylinder. The winding machine is arranged on the upper end of the bottom plate. The winding machine is used for winding the processed titanium alloy wire rope.

[0017] The beneficial effects of the present invention are as follows: 1. For a cutting device for processing titanium alloy wire ropes according to the present invention, by driving the U-shaped plate to move to the outside of the titanium alloy wire rope, and then driving the end of the iron sheet to slide into the U-shaped plate. The iron sheet slides along the curvature inside the U-shaped plate, so that the iron sheet forms an arc outside the titanium alloy wire rope. Then drive the U-shaped plate to slide away from the titanium alloy wire rope, and then drive the two first arc-shaped pressing blocks to slide towards the titanium alloy wire rope. The two first arc-shaped pressing blocks tightly fit the iron sheet on the outside of the titanium alloy wire rope. Since the iron sheet has a certain toughness, the iron sheet can fix the cutting end of the titanium alloy wire rope. Then drive the second cutting knife to cut the titanium alloy wire rope. After cutting, since the iron sheet is located outside the cutting end of the titanium alloy wire rope, it prevents the titanium alloy wire rope from loosening after cutting. Then drive the two first arc-shaped pressing blocks away from both sides of the titanium alloy wire rope. By driving the first arc-shaped pressing block to press the iron sheet on the outside of the titanium alloy wire rope, and then cutting again, the iron sheet wraps and fixes the two ends of the cutting part of the titanium alloy wire rope, with a high degree of automation, thus improving work efficiency.

[0018] 2. For a cutting device for processing titanium alloy wire ropes according to the present invention, by driving the third transmission wheel to drive the end of the cut titanium alloy wire rope to slide between the arc-shaped electric sliding rails, driving the end of the titanium alloy wire rope to slide to one side of another group of third transmission wheels. The titanium alloy wire rope is wrapped around the outside of the cylindrical block, so that the end of the titanium alloy wire rope forms a loop. Then drive the second wrapping assembly to move the iron sheet to the outside of the overlapping part of the titanium alloy wire rope. Then drive the third arc-shaped pressing block and the second arc-shaped pressing block to approach each other, and perform secondary wrapping on the overlapping part of the titanium alloy wire rope, making the end of the titanium alloy wire rope fixed more firmly. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present invention will be further described below with reference to the accompanying drawings.

[0020] Figure 1 is a three-dimensional view of Embodiment 1 of the present invention; Figure 2 is a schematic structural diagram of the cutting assembly; Figure 3 is a schematic internal view of the cross-section of the cylinder; Figure 4 is a schematic structural diagram of the cutting component; Figure 5 is a schematic structural diagram of the U-shaped plate; Figure 6 is a schematic structural diagram of the press-fitting assembly; Figure 7 is a schematic diagram of the position of the second cutting knife; Figure 8 is a schematic diagram of the position of the arc-shaped electric sliding rail; Figure 9 It is a schematic diagram of the fixed component structure; In the figure: 1, cylinder; 11, first arc-shaped extrusion block; 111, rectangular groove; 112, rectangular slider; 113, first spring; 114, first cutting knife; 115, first waist-shaped block; 12, rectangular cylinder; 121, first rectangular strip; 122, second spring; 123, second rectangular strip; 124, third rectangular strip; 125, fourth rectangular strip; 13, first rectangular block; 14, bidirectional lead screw; 141, motor; 142, fixed block; 15, first rectangular plate; 16, first conveyor wheel; 2, second cutting knife; 21, cylindrical strip; 22, third spring; 23, second waist-shaped block; 24, knife seat; 3, iron sheet; 31, first fixing strip; 32, U-shaped plate; 321, second fixing strip; 322, third fixing strip; 323, first electric telescopic rod; 33, second conveyor wheel; 331, U-shaped strip; 4, stranding machine; 5, arc-shaped electric slide rail; 51, second rectangular plate; 52, third conveyor wheel; 53, second arc-shaped extrusion block; 531, T-shaped block; 532, first electric slide rail; 54, third arc-shaped extrusion block; 541, fifth rectangular strip; 542, rectangular frame; 55, second electric slide rail; 56, cylindrical block; 561, second electric telescopic rod; 562, L-shaped strip; 6, winding machine; 7, bottom plate. Specific implementation mode

[0021] In order to make the technical means, creative features, achieved purposes and effects realized by the present invention easy to understand, the present invention will be further described below in conjunction with specific implementation modes.

[0022] Example 1: As Figures 1 - 6 shown, a cutting device for processing titanium alloy wire ropes according to an embodiment of the present invention includes a stranding machine 4 for stranding and processing titanium alloy wire ropes. A cutting assembly is provided on one side of the stranding machine 4. The cutting assembly includes a cylinder 1 provided on one side of the stranding machine 4. A second cutting knife 2 slides through the upper end of the middle part of the cylinder 1, and a knife seat 24 slides through the position corresponding to the second cutting knife 2 in the middle part of the cylinder 1. The cutting assembly is used for cutting titanium alloy wire ropes. Pressing and mounting assemblies are respectively provided on both sides of the cylinder 1. The pressing and mounting assemblies include first arc-shaped extrusion blocks 11 slidably arranged at the upper and lower ends inside the cylinder 1. A first coating assembly is provided between the two first arc-shaped extrusion blocks 11. The first coating assembly includes a coiled iron sheet 3 rotatably arranged on one side of the cylinder 1. The end of the iron sheet 3 slides through to the inside of the cylinder 1. A U-shaped plate 32 is slidably arranged on the side of the cylinder 1 away from the coiled iron sheet 3.

[0023] Specifically, after the titanium alloy wire rope is processed in the prior art, it is necessary to wind the titanium alloy wire rope. When a certain number of titanium alloy wire ropes are wound, it is necessary to cut the titanium alloy steel wire rope. Since the titanium alloy wire rope is composed of multiple strands of titanium alloy wires twisted together, the end of the titanium alloy wire rope will become loose after cutting. In the prior art, a buckle is generally used to clamp and fix the end of the cut titanium alloy wire rope to prevent loosening. In the prior art, workers need to manually fix it, and the degree of automation is relatively low, resulting in low work efficiency. When using this cutting device, multiple strands of titanium alloy wires are twisted together by a stranding machine 4 to form a titanium alloy wire rope. Subsequently, the titanium alloy wire rope is pulled out, passed through the middle of the cylinder 1, and then wound. When the titanium alloy wire rope is wound to a certain extent, it needs to be cut. By driving the U-shaped plate 32 to move to the outside of the titanium alloy wire rope, at this time, the titanium alloy wire rope is located in the middle of the U-shaped plate 32. Subsequently, by driving the end of the iron sheet 3 to slide into the U-shaped plate 32, the iron sheet 3 slides along the arc inside the U-shaped plate 32, so that the iron sheet 3 forms an arc and is located outside the titanium alloy wire rope. Subsequently, the U-shaped plate 32 is driven to slide away from the titanium alloy wire rope, and the iron sheet 3 is located outside the titanium alloy wire rope. At the same time, by driving the two first arc-shaped pressing blocks 11 to slide towards the titanium alloy wire rope, the two first arc-shaped pressing blocks 11 press the titanium alloy wire rope and the iron sheet 3, so that the iron sheet 3 closely adheres to the outside of the titanium alloy wire rope. Since the iron sheet 3 has a certain toughness, the iron sheet 3 can fix the cutting end of the titanium alloy wire rope. Subsequently, the titanium alloy wire rope is cut by driving the second cutting knife 2. After cutting, since the iron sheet 3 is located outside the cutting end of the titanium alloy wire rope, it prevents the titanium alloy wire rope from becoming loose after cutting. Subsequently, the two first arc-shaped pressing blocks 11 are driven away from both sides of the titanium alloy wire rope. By driving the first arc-shaped pressing block 11, the iron sheet 3 is pressed on the outside of the titanium alloy wire rope. Subsequently, cutting is performed again, and the iron sheet 3 covers and fixes both ends of the cutting part of the titanium alloy wire rope, eliminating the need for manual fixing by workers and having a high degree of automation, thus improving work efficiency.

[0024] As Figure 3 shown, both sides of the cylinder 1 are fixedly connected to the upper end of the bottom plate 7 through the first rectangular plate 15. The coiled iron sheet 3 is rotatably arranged on one side of the cylinder 1 through the first fixing strip 31. Two groups of first transmission wheels 16 are respectively rotatably arranged at both ends inside the cylinder 1. The first covering assembly further includes two second transmission wheels 33 rotatably arranged on the side of the cylinder 1 close to the coiled iron sheet 3 inside the cylinder 1. The second transmission wheels 33 are rotatably arranged inside the cylinder 1 through the U-shaped strip 331, and the second transmission wheels 33 are used for transmitting the iron sheet 3.

[0025] Specifically, when coating the titanium alloy wire rope, the end of the iron sheet 3 is driven to slide into the U - shaped plate 32 to form an arc by driving the second transmission wheel 33 to rotate. Subsequently, the first arc - shaped extrusion block 11 is driven to drive the iron sheet 3 to wrap around the outside of the titanium alloy wire rope. By driving the second transmission wheel 33 to rotate, the iron sheet 3 can be automatically slid into the U - shaped plate 32, facilitating continuous coating processing. After coating, cutting is carried out. After cutting is completed, by driving the first transmission wheel 16 to rotate, the end of the cut titanium alloy wire rope is conveyed.

[0026] As Figure 5 shown, on one side of each of the two U - shaped plates 32, a second fixing strip 321 is fixedly connected. On one side of the second fixing strips 321, a third fixing strip 322 is fixedly connected. At the upper end of the first rectangular plate 15, a first electric telescopic rod 323 is fixedly connected, and the output end of the first electric telescopic rod 323 is fixedly connected to the third fixing strip 322.

[0027] Specifically, by driving the first electric telescopic rod 323 to extend, the first electric telescopic rod 323 drives the second fixing strip 321 to move towards the titanium alloy wire rope side through the third fixing strip 322. The second fixing strip 321 simultaneously drives the two U - shaped plates 32 to move to the outside of the titanium alloy wire rope, facilitating driving the iron sheet 3 to slide into the U - shaped plate 32 to form an arc, and facilitating the subsequent coating work of the titanium alloy wire rope.

[0028] As Figure 4 shown, on one side of the lower end of the upper first arc - shaped extrusion block 11, there is a first cutting assembly. The first cutting assembly includes a rectangular groove 111 provided on one side of the lower end of the first arc - shaped extrusion block 11. Inside the rectangular groove 111, a rectangular slider 112 is slidably arranged on one side, and a first cutting knife 114 is slidably arranged on the other side inside the rectangular groove 111. The first cutting knife 114 is located above the rectangular slider 112. The rectangular slider 112 is fixedly connected to the inside of the rectangular groove 111 through a first spring 113. On both sides of the rectangular slider 112, first kidney - shaped blocks 115 are slidably arranged. One end of the first kidney - shaped block 115 away from the rectangular slider 112 is slidably arranged on both sides of the first cutting knife 114, and the first kidney - shaped blocks 115 are respectively rotatably arranged on both sides inside the rectangular groove 111.

[0029] Specifically, after the iron sheet 3 is located outside the titanium alloy wire rope, when driving the first arc-shaped extrusion block 11 to drive the iron sheet 3 to wrap the titanium alloy wire rope, the upper first arc-shaped extrusion block 11 slides downward and contacts the lower first arc-shaped extrusion block 11, driving the iron sheet 3 to closely adhere to the outside of the titanium alloy wire rope. At the same time, the rectangular slider 112 contacts the lower first arc-shaped extrusion block 11. At this time, the first cutting knife 114 is located inside the rectangular groove 111. At the same time, the rectangular slider 112 slides into the rectangular groove 111 and squeezes the first spring 113, and at the same time drives the first waist-shaped block 115 to rotate. When the first waist-shaped block 115 rotates, it drives the first cutting knife 114 to slide downward until the first cutting knife 114 extends out of the lower end of the rectangular groove 111. At this time, the iron sheet 3 can be cut off. When the first arc-shaped extrusion block 11 drives the iron sheet 3 to wrap the outside of the titanium alloy wire rope, the iron sheet 3 is automatically cut off, and the working efficiency is relatively high.

[0030] As Figures 6 - 7 shown, rectangular cylinders 12 are fixedly connected to the sides of the first arc-shaped extrusion block 11 away from the titanium alloy wire rope. A first rectangular bar 121 is slidably arranged inside the rectangular cylinder 12. The first rectangular bar 121 is fixedly connected to the inside of the rectangular cylinder 12 through a second spring 122. The ends of the two opposite first rectangular bars 121 away from the rectangular cylinder 12 are commonly fixedly connected to a second rectangular bar 123. A fourth rectangular bar 125 is fixedly connected to one side of the second rectangular bar 123 through a third rectangular bar 124. A bidirectional lead screw 14 is commonly threadedly connected to the middle parts of the two fourth rectangular bars 125. The middle part of the bidirectional lead screw 14 is rotatably arranged on one side of the cylinder 1 through a first rectangular block 13. The lower end of the bidirectional lead screw 14 is fixedly connected to the output end of a motor 141. The motor 141 is fixedly connected to one side of a first rectangular plate 15 through a fixing block 142.

[0031] Specifically, by starting the motor 141 to drive the bidirectional lead screw 14 to rotate, when the bidirectional lead screw 14 rotates, it drives the two fourth rectangular bars 125 to slide towards the middle at the same time. The fourth rectangular bar 125 drives the second rectangular bar 123 to slide towards the side close to the titanium alloy wire rope at the same time through the third rectangular bar 124. The second rectangular bar 123 drives the first arc-shaped extrusion block 11 to approach the outside of the titanium alloy wire rope at the same time through the first rectangular bar 121 and the rectangular cylinder 12 until the iron sheet 3 is driven to wrap the outside of the titanium alloy wire rope, and the two ends of the position that needs to be cut of the titanium alloy wire rope can be wrapped at the same time.

[0032] As Figure 7 shown, cylindrical bars 21 are fixedly connected to both sides of the opposite ends of the second cutting knife 2 and the tool holder 24. The cylindrical bars 21 respectively slide through the middle parts of the second rectangular bar 123. The ends of the two cylindrical bars 21 on the opposite side are commonly fixedly connected to a second waist-shaped block 23. Third springs 22 are respectively arranged at the upper and lower ends of the second rectangular bar 123. The third springs 22 are respectively sleeved on the outside of the cylindrical bars 21.

[0033] Specifically, when the bidirectional lead screw 14 rotates to drive the first arc-shaped extrusion block 11 through the second rectangular bar 123 to drive the iron sheet 3 to wrap the titanium alloy wire rope, after the first arc-shaped extrusion block 11 drives the iron sheet 3 to wrap around the outside of the titanium alloy wire rope, the second rectangular bar 123 continuously moves towards the middle of the titanium alloy wire rope. At this time, the first rectangular bar 121 slides into the rectangular cylinder 12 and presses the second spring 122. The second rectangular bar 123 drives the second cutting knife 2 to approach the knife seat 24 through the cylindrical bar 21 until the second cutting knife 2 contacts the knife seat 24 to cut off the middle titanium alloy wire rope. Then, the third spring 22 is compressed to prevent damage caused by excessive pressing of the second cutting knife 2.

[0034] As Figures 8 - 9 shown, a fixing component is provided on the side of the cylinder 1 away from the stranding machine 4. The fixing component includes two arc-shaped electric slide rails 5 provided on one side of the cylinder 1. The arc-shaped electric slide rails 5 are fixedly connected to the upper end of the bottom plate 7 through the second rectangular plate 51. Two third transmission wheels 52 are respectively rotatably provided on both sides of the upper end of the arc-shaped electric slide rails 5. The two third transmission wheels 52 close to the side of the cylinder 1 are slidably provided between the two arc-shaped electric slide rails 5. A second wrapping component is provided on one side of the upper end of the arc-shaped electric slide rails 5. The second wrapping component has the same structure as the first wrapping component. A third arc-shaped extrusion block 54 is slidably provided at the upper end of the second wrapping component, and a second arc-shaped extrusion block 53 is slidably provided at the lower end of the second wrapping component. A cylindrical block 56 is slidably provided in the middle of the upper end of the arc-shaped electric slide rails 5. The cylindrical block 56 is located at the lower end of the titanium alloy wire rope. One side of the cylindrical block 56 is fixedly connected to the output end of the second electric telescopic rod 561. The second electric telescopic rod 561 is fixedly connected to one side of the second rectangular plate 51 through the L-shaped bar 562.

[0035] Specifically, after cutting the titanium alloy wire rope, drive the third transmission wheel 52 to drive the end of the cut titanium alloy wire rope to slide between the arc-shaped electric slide rails 5, drive the end of the titanium alloy wire rope to slide to the side of the other group of third transmission wheels 52, and the titanium alloy wire rope is wrapped around the outside of the cylindrical block 56 to form a loop at the end of the titanium alloy wire rope. Then, drive the second wrapping component to move the iron sheet 3 to the outside of the overlapping part of the titanium alloy wire rope. Then, drive the third arc-shaped extrusion block 54 and the second arc-shaped extrusion block 53 to approach each other to perform secondary wrapping on the overlapping part of the titanium alloy wire rope, making the end of the titanium alloy wire rope fixed more firmly. Then, drive the second electric telescopic rod 561 to contract to drive the cylindrical block 56 to slide away from the titanium alloy wire rope. Then, drive the third transmission wheel 52 to drive the end of the titanium alloy wire rope with secondary wrapping to one side, and then the coiled titanium alloy wire rope with the end fixed can be taken down.

[0036] As Figure 9As shown in the figure, a fifth rectangular bar 541 is fixedly connected to the upper end of the third arc-shaped extrusion block 54. A rectangular frame 542 is fixedly connected to one side of the fifth rectangular bar 541. A second electric slide rail 55 is fixedly connected to the upper side of one side of the two arc-shaped electric slide rails 5. The rectangular frame 542 is slidably arranged on one side of the second electric slide rail 55. A T-shaped block 531 is fixedly connected to the lower end of the second arc-shaped extrusion block 53. A first electric slide rail 532 is fixedly connected to one side of the second rectangular plate 51. The T-shaped block 531 is slidably arranged on one side of the first electric slide rail 532.

[0037] Specifically, after the driving second covering component moves the iron sheet 3 to the outside of the overlapping part of the titanium alloy wire rope, the rectangular frame 542 is driven to drive the third arc-shaped extrusion block 54 to slide downward on one side of the second electric slide rail 55 through the fifth rectangular bar 541. At the same time, the T-shaped block 531 is driven to drive the second arc-shaped extrusion block 53 to slide upward on one side of the first electric slide rail 532 until the third arc-shaped extrusion block 54 contacts the second arc-shaped extrusion block 53, and the iron sheet 3 is covered on the outside of the overlapping part of the titanium alloy wire rope.

[0038] As Figure 9 shown in the figure, a second cutting component is arranged on one side of the lower end of the third arc-shaped extrusion block 54. The second cutting component has the same structure as the first cutting component.

[0039] Specifically, after the third arc-shaped extrusion block 54 contacts the second arc-shaped extrusion block 53, the second cutting component can cut off the iron sheet 3.

[0040] Embodiment 2: As Figure 1 shown in the figure, compared with Embodiment 1, another implementation manner of the present invention is: a winding machine 6 is arranged on the side of the fixing component away from the cylinder 1. The winding machine 6 is arranged on the upper end of the bottom plate 7. The winding machine 6 is used for winding the processed titanium alloy wire rope.

[0041] Specifically, the winding machine 6 is arranged at the upper end position of the bottom plate 7. The main function of the winding machine 6 is to effectively wind the processed titanium alloy wire rope to ensure that the wire rope can be neatly wound after processing, so as to facilitate subsequent storage and transportation.

[0042] Working principle: When processing the titanium alloy wire rope, a stranding machine 4 is used to strand multiple strands of titanium alloy wires together to form a titanium alloy wire rope. Then, the titanium alloy wire rope is pulled out and passed through the middle of the cylinder 1. The end of the titanium alloy wire rope is connected to the winding machine 6, and the winding machine 6 effectively winds the titanium alloy wire rope; After the titanium alloy wire rope is wound to a certain extent, the first electric telescopic rod 323 is driven to extend. The first electric telescopic rod 323 drives the second fixing strip 321 to move towards the side close to the titanium alloy wire rope through the third fixing strip 322. By driving the second transmission wheel 33 to rotate, the end of the iron sheet 3 is driven to slide into the U-shaped plate 32 to form an arc. Subsequently, the first arc-shaped extrusion block 11 is driven to drive the iron sheet 3 to wrap around the outside of the titanium alloy wire rope. By driving the second transmission wheel 33 to rotate, the iron sheet 3 can be automatically slid into the U-shaped plate 32. Subsequently, the U-shaped plate 32 is driven away from the side of the titanium alloy wire rope. By starting the motor 141, the bidirectional lead screw 14 is driven to rotate. While the bidirectional lead screw 14 rotates, the two fourth rectangular strips 125 are simultaneously driven to slide towards the middle. The fourth rectangular strip 125 drives the second rectangular strip 123 to simultaneously slide towards the side close to the titanium alloy wire rope through the third rectangular strip 124. The second rectangular strip 123 drives the first arc-shaped extrusion block 11 to simultaneously approach the outside of the titanium alloy wire rope through the first rectangular strip 121 and the rectangular cylinder 12 until the iron sheet 3 is driven to cover the outside of the titanium alloy wire rope. At this time, the second rectangular strip 123 continues to move towards the middle of the titanium alloy wire rope. At this time, the first rectangular strip 121 slides into the rectangular cylinder 12 and squeezes the second spring 122. The second rectangular strip 123 drives the second cutting knife 2 and the tool holder 24 to approach each other through the cylindrical strip 21 until the second cutting knife 2 contacts the tool holder 24 and cuts off the middle titanium alloy wire rope. Subsequently, the third spring 22 is squeezed to prevent damage caused by excessive squeezing of the second cutting knife 2. After the titanium alloy wire rope is cut, the third transmission wheel 52 is driven to drive the end of the cut titanium alloy wire rope to slide between the arc-shaped electric slide rails 5, driving the end of the titanium alloy wire rope to slide to one side of another set of third transmission wheels 52. The titanium alloy wire rope is wrapped around the outside of the cylindrical block 56, forming a loop at the end of the titanium alloy wire rope. Subsequently, the second wrapping assembly is driven to move the iron sheet 3 to the outside of the overlapping part of the titanium alloy wire rope. Subsequently, the third arc-shaped extrusion block 54 and the second arc-shaped extrusion block 53 are driven to approach each other, and the overlapping part of the titanium alloy wire rope is wrapped twice, making the end of the titanium alloy wire rope fixed more firmly. Subsequently, the second electric telescopic rod 561 is driven to contract, driving the cylindrical block 56 to slide away from the side of the titanium alloy wire rope. Subsequently, the third transmission wheel 52 is driven to transmit the end of the titanium alloy wire rope wrapped twice to one side, and then the wound titanium alloy wire rope with the end fixed can be taken down.

[0043] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. What is described in the above embodiments and the specification only illustrates the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A cutting device for processing titanium alloy wire ropes, comprising a stranding machine (4), the stranding machine (4) being used for stranding and processing titanium alloy wire ropes, and a cutting assembly being arranged on one side of the stranding machine (4), characterized in that: The cutting assembly includes a cylinder (1) provided on one side of a stranding machine (4). A second cutting knife (2) slidably penetrates through the upper end of the middle part of the cylinder (1). A tool holder (24) slidably penetrates through the middle part of the cylinder (1) at a position corresponding to the second cutting knife (2). The cutting assembly is used for cutting a titanium alloy wire rope. Pressing assemblies are respectively provided on both sides of the cylinder (1). The pressing assembly includes first arc-shaped pressing blocks (11) slidably arranged at the upper and lower ends inside the cylinder (1). A first covering assembly is arranged between the two first arc-shaped pressing blocks (11). The first covering assembly includes a rolled iron sheet (3) rotatably arranged on one side of the cylinder (1). The end of the iron sheet (3) slidably penetrates into the cylinder (1). A U-shaped plate (32) is slidably arranged on one side of the cylinder (1) away from the rolled iron sheet (3).

2. The cutting device for processing titanium alloy wire ropes according to claim 1, characterized in that: Both sides of the cylinder (1) are fixedly connected to the upper end of a bottom plate (7) through first rectangular plates (15). The rolled iron sheet (3) is rotatably arranged on one side of the cylinder (1) through a first fixing strip (31). Two groups of first conveyor wheels (16) are respectively rotatably arranged at both ends inside the cylinder (1). The first covering assembly further includes two second conveyor wheels (33) rotatably arranged on one side of the cylinder (1) close to the rolled iron sheet (3). The second conveyor wheels (33) are rotatably arranged inside the cylinder (1) through U-shaped strips (331). The second conveyor wheels (33) are used for conveying the iron sheet (3).

3. The cutting device for processing titanium alloy wire ropes according to claim 2, characterized in that: Second fixing strips (321) are respectively fixedly connected to one side of the two U-shaped plates (32). A third fixing strip (322) is fixedly connected to one side of the second fixing strips (321) together. A first electric telescopic rod (323) is fixedly connected to the upper end of the first rectangular plate (15). The output end of the first electric telescopic rod (323) is fixedly connected to the third fixing strip (322).

4. A cutting device for processing titanium alloy wire ropes according to claim 1, characterized in that: A first cutting assembly is arranged on one side of the lower end of the upper first arc-shaped pressing block (11). The first cutting assembly includes a rectangular groove (111) arranged on one side of the lower end of the first arc-shaped pressing block (11). A rectangular slider (112) is slidably arranged on one side inside the rectangular groove (111). A first cutting knife (114) is slidably arranged on the other side inside the rectangular groove (111). The first cutting knife (114) is located above the rectangular slider (112). The rectangular slider (112) is fixedly connected to the inside of the rectangular groove (111) through a first spring (113). First waist-shaped blocks (115) are respectively slidably arranged on both sides of the rectangular slider (112). One ends of the first waist-shaped blocks (115) away from the rectangular slider (112) are respectively slidably arranged on both sides of the first cutting knife (114). The first waist-shaped blocks (115) are respectively rotatably arranged on both sides inside the rectangular groove (111).

5. A cutting device for processing titanium alloy wire ropes according to claim 4, characterized in that: On the side of the first arc-shaped extrusion block (11) away from the titanium alloy wire rope, a rectangular cylinder (12) is fixedly connected respectively. A first rectangular bar (121) is slidably arranged inside the rectangular cylinder (12). The first rectangular bar (121) is fixedly connected to the inside of the rectangular cylinder (12) through a second spring (122). At the ends of the two opposite first rectangular bars (121) away from the rectangular cylinder (12), a second rectangular bar (123) is fixedly connected jointly. On one side of the second rectangular bar (123), fourth rectangular bars (125) are fixedly connected respectively through third rectangular bars (124). In the middle of the two fourth rectangular bars (125), a bidirectional lead screw (14) is connected by threads. The middle of the bidirectional lead screw (14) is rotatably arranged on one side of a cylinder (1) through a first rectangular block (13). The lower end of the bidirectional lead screw (14) is fixedly connected to the output end of a motor (141). The motor (141) is fixedly connected to one side of a first rectangular plate (15) through a fixing block (142).

6. The cutting device for processing titanium alloy wire ropes according to claim 5, wherein: On both sides of the opposite end of the second cutting knife (2) from the knife holder (24), cylindrical bars (21) are fixedly connected respectively. The cylindrical bars (21) slide through the middle of the second rectangular bar (123) respectively. At the ends of the two cylindrical bars (21) on the opposite side, a second kidney-shaped block (23) is fixedly connected jointly. Third springs (22) are arranged at the upper and lower ends of the second rectangular bar (123) respectively. The third springs (22) are sleeved on the outer sides of the cylindrical bars (21) respectively.

7. A cutting device for processing titanium alloy wire ropes according to claim 6, characterized in that: On the side of the cylinder (1) away from the strander (4), a fixing component is provided. The fixing component includes two arc-shaped electric slide rails (5) arranged on one side of the cylinder (1). The arc-shaped electric slide rails (5) are fixedly connected to the upper end of a bottom plate (7) through second rectangular plates (51). On both sides of the upper ends of the arc-shaped electric slide rails (5), two third conveyor wheels (52) are rotatably arranged respectively. The two third conveyor wheels (52) close to the side of the cylinder (1) are slidably arranged between the two arc-shaped electric slide rails (5). On one side of the upper end of the arc-shaped electric slide rails (5), a second covering component is provided. The second covering component has the same structure as the first covering component. A third arc-shaped extrusion block (54) is slidably arranged at the upper end of the second covering component. A second arc-shaped extrusion block (53) is slidably arranged at the lower end of the second covering component. A cylindrical block (56) is slidably arranged in the middle of the upper end of the arc-shaped electric slide rails (5). The cylindrical block (56) is located at the lower end of the titanium alloy wire rope. On one side of the cylindrical block (56), the output end of a second electric telescopic rod (561) is fixedly connected. The second electric telescopic rod (561) is fixedly connected to one side of the second rectangular plate (51) through an L-shaped bar (562).

8. A cutting device for processing titanium alloy wire ropes according to claim 7, characterized in that: The upper end of the third arc-shaped extrusion block (54) is fixedly connected with a fifth rectangular bar (541), one side of the fifth rectangular bar (541) is fixedly connected with a rectangular frame (542), one side of the upper ends of the two arc-shaped electric slide rails (5) is jointly fixedly connected with a second electric slide rail (55), the rectangular frame (542) is slidably arranged on one side of the second electric slide rail (55), the lower end of the second arc-shaped extrusion block (53) is fixedly connected with a T-shaped block (531), one side of the second rectangular plate (51) is fixedly connected with a first electric slide rail (532), and the T-shaped block (531) is slidably arranged on one side of the first electric slide rail (532).

9. The cutting device for processing titanium alloy wire ropes according to claim 8, characterized in that: A second cutting assembly is arranged on one side of the lower end of the third arc-shaped extrusion block (54), and the second cutting assembly has the same structure as the first cutting assembly.

10. A cutting device for processing titanium alloy wire ropes according to claim 9, characterized in that: A winding machine (6) is arranged on the side of the fixing assembly away from the cylinder (1), the winding machine (6) is arranged on the upper end of the bottom plate (7), and the winding machine (6) is used for winding the processed titanium alloy wire rope.

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