Cutting device with limiting structure for winding structure wall pipe production line

Abstract

The invention discloses a cutting device with a limiting structure for a winding structure wall pipe production line, and relates to the technical field of cutting. The device comprises a device body, a rotating assembly is arranged at the top of the device body and driven by an external motor, a mold core is fixedly installed on the side, close to the axis of the device body, of the rotating assembly, a machining cavity is formed in the bottom of the inner wall of the device body, and a production part is arranged on the back face of the device body; an anti-roughness device is arranged on the left side in the machining cavity, an anti-overheating device is arranged below the anti-roughness device, and an anti-shaking device is arranged on the right side of the anti-overheating device. The L-shaped spray gun is promoted to wet and cool the cutting position of the cutting assembly and the pipe from top to bottom, the situation that the section is melted and deformed due to the fact that the high-density polyethylene pipe is rapidly heated in the cutting process is avoided, and the burr and rough phenomenon caused by the fact that the section of the pipe is deformed to influence the cutting smoothness is prevented.

Description

Technical Field

[0001] The invention relates to the field of cutting technology, in particular to a cutting device with a limiting structure used in a winding structure wall tube production line. Background Art

[0002] The wound structural wall tube is a kind of tube made of specific materials through the winding molding process. It has a special structural wall. The wound structural wall tube uses high-density polyethylene as the main raw material and is a new type of special-shaped structural wall tube made by the hot winding molding process. It is also called carat tube and is widely used in life.

[0003] The patent with the patent announcement number CN202943315U discloses a cutting device with a limiting structure used in a carat tube production line. The structure includes an automatic feeding device, a support plate connected to the power output end of the automatic feeding device, and a milling cutter assembly fixed on the support plate by means of a positioning component. The key is that a roller supported by a bracket is also provided on the support plate, the center of the roller is on the same horizontal line as the axis of the milling cutter shaft, and the diameter of the roller is greater than the maximum diameter of the rotating profile of the milling cutter to form a limiting structure for controlling the horizontality of the milling cutter. The beneficial effects of the patent are: the patent has a simple structure and is easy to operate. The position of the milling cutter is controlled by a limiting roller, which avoids excessive cutting of the tube, eliminates the process of manual measurement, and reduces the number of cutting times, thereby ensuring the quality of the carat tube, reducing the scrap rate, and reducing unnecessary labor and energy waste for the enterprise, thereby reducing costs.

[0004] However, the device still has some shortcomings: the device can save the manual measurement process and reduce the number of cutting times, but the high-density polyethylene pipe is prone to rapid temperature rise during the cutting process, causing the cut surface to melt. At this time, the cut surface of the pipe is prone to burrs and deformation, which will extend the time for workers to trim the cut surface of the pipe. Summary of the invention

[0005] In view of the deficiencies in the prior art, the present invention provides a cutting device with a limiting structure used in a winding structure wall tube production line, which solves the problems raised in the above-mentioned background technology.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: A cutting device with a limiting structure used in a winding structure wall tube production line, comprising a device body, a rotating assembly is arranged on the top of the device body, the rotating assembly is driven by an external motor, a mold core is fixedly installed on one side of the rotating assembly close to the axis of the device body, a processing chamber is arranged at the bottom of the inner wall of the device body, and a production component is arranged on the back of the device body; An anti-roughness device is provided on the left side of the processing chamber, an anti-overheating device is provided below the anti-roughness device, and an anti-swaying device is provided on the right side of the anti-overheating device; The anti-roughness device comprises an electric slide rail, the left side of the electric slide rail is fixedly mounted on the left side of the inner wall of the processing chamber, the right side of the electric slide rail is provided with a support plate, the left side of the support plate is slidably mounted with a transmission assembly, the left side of the transmission assembly is slidably mounted inside the electric slide rail, an electric push rod is fixedly mounted on one side of the back side of the transmission assembly, the electric push rod is composed of a fixed end and a telescopic end, an L-shaped telescopic plate is fixedly mounted on one end of the back side of the telescopic end of the electric push rod, the front side of the fixed end of the L-shaped telescopic plate is fixedly mounted on the back side of the transmission assembly, a cutting assembly is fixedly mounted on the right side of the back side of the telescopic end of the L-shaped telescopic plate, a round wheel assembly is fixedly mounted on the left side of the back side of the telescopic end of the L-shaped telescopic plate, and the round wheel in the round wheel assembly is rotatably mounted, an L-shaped spray gun is fixedly mounted on the top of the telescopic end of the L-shaped telescopic plate, a spiral hose is penetrated and fixedly mounted on the top of the L-shaped spray gun, a water tank is fixedly mounted on the top of the spiral hose, the pipe, i.e., the winding structure wall pipe, is penetrated and sleeved on the outer wall of the mold core, and when it is necessary to cut the pipe port, the electric slide rail is started, and the electric slide rail drives the transmission assembly to The inner part of the mold core slides upward, and when the right side of the transmission component slides along the outer wall of the support plate, the support plate limits the transmission component to ensure its vertical movement. The transmission component drives the electric push rod to move synchronously, and the electric push rod drives the L-shaped telescopic plate to move synchronously. When the L-shaped telescopic plate rises to the predetermined cutting height of the pipe, the electric slide rail stops operating, and the electric push rod starts at this time. The telescopic end of the electric push rod pushes the telescopic end of the L-shaped telescopic plate toward the mold core, and the telescopic end of the L-shaped telescopic plate drives the cutting component and the circular wheel component to move synchronously. At this time, the cutting component is started to cut the pipe sleeved on the outer wall of the mold core. The cutting component gradually penetrates into the interior of the pipe with the help of the telescopic end of the electric push rod. Since the outer wall of the circular wheel component is convex to the cutting component, when the circular wheel component contacts the outer wall of the mold core, the rotating component rotates through the external motor and drives the mold core to rotate. At this time, the mold core drives the pipe to rotate and contact the cutting component to complete the cutting work of the socket; the telescopic end of the L-shaped telescopic plate drives the L-shaped spray gun to move synchronously, and the L-shaped spray gun introduces the cooling water source inside the water tank into itself through the spiral hose. The L-shaped spray gun starts synchronously when the cutting component is started.

[0007] According to the above technical solution, the bottom of the support plate is fixedly installed on the bottom of the inner wall of the processing chamber, the cutting assembly and the circular wheel assembly are on the same axis, and the outer wall of the circular wheel assembly is convex to the cutting assembly, and the outer wall of the water tank passes through and is fixedly installed inside the processing chamber.

[0008] According to the above technical scheme, the anti-overheating device includes a cooling component, a plurality of limit rods and a filter plate. The bottom of the cooling component is fixedly installed on the bottom of the inner wall of the processing chamber, and the cooling component is located below the mold core. The bottoms of the plurality of limit rods are fixedly installed at the top corners of the cooling component. The front of the filter plate is fixedly installed on the back edge of the transmission component. The inside of the filter plate penetrates and is slidably installed on the outer wall of the limit rod. When the transmission component moves upward, it drives the filter plate to move synchronously. The filter plate slides vertically upward along the outer wall of the limit rod. At this time, the filter plate is separated from the cover of the cooling component, prompting the filter plate to contact the cooling water source falling during cutting in a direction closer to the mold core.

[0009] The top of the U-shaped plate is hinged at the bottom edge of the filter plate, and the bottom of the telescopic block is slidably installed on the bottom of the inner wall of the cooling assembly, and the top of the fixed end of the telescopic block is hinged on the bottom of the U-shaped plate, and the anti-skid wheel is rotatably installed on the side of the telescopic block close to the axis of the cooling assembly. Both ends of the rotating rod are fixedly installed on the inner wall of the anti-skid wheel, and several of the spoilers are fixedly installed on the outer wall of the rotating rod. In the process of the filter plate following the upward movement of the transmission assembly, the U-shaped plate drives the synchronous movement, and the bottom of the U-shaped plate is restricted by the telescopic block, prompting its own hinge axis to start rotating. At this time, the U-shaped plate drives the telescopic block to slide in the direction close to the inner wall of the cooling assembly with its own hinge axis as the axis, and the telescopic block drives the anti-skid wheel to move synchronously. When the anti-skid wheel slides along the bottom of the inner wall of the cooling assembly, friction is generated and the wheel starts to rotate. When the anti-skid wheel rotates, it drives the rotating rod to rotate, and the rotating rod drives the spoiler to rotate, and the spoiler disturbs the cooling water source collected inside the cooling assembly.

[0010] According to the above technical solution, a torsion spring is arranged between the top of the U-shaped plate and the filter plate, the outer wall of the anti-skid wheel contacts the bottom of the inner wall of the cooling assembly, and a plurality of spoilers are equidistantly distributed on the outer wall of the rotating rod.

[0011] According to the above technical solution, the anti-sway device includes a transmission plate and a swing plate, the transmission plate is hinged at the outer wall of the right end of the filter plate through a torsion spring, the bottom of the swing plate is hinged at the outer wall of the right side of the cooling assembly, and the swing plate is hinged at the bottom of the transmission plate close to the cooling assembly. When the filter plate moves upward, it drives the transmission plate to move synchronously, and the transmission plate drives the swing plate to move synchronously. The bottom of the swing plate is restricted by the cooling assembly, causing its own hinge shaft to generate a rotational force. At this time, the swing plate flips toward the direction close to the filter plate with its own hinge shaft as the axis.

[0012] The cam is hinged on the outer wall of the L-shaped telescopic slide plate to prevent the cam from sliding back and forth, and the cam is fixed on the outer wall of the L-shaped telescopic slide plate to prevent the cam from sliding back and forth. The bottom of the L-shaped telescopic slide can be pulled to slide along the bottom of the inner wall of the processing chamber toward the cooling component, and the telescopic end of the L-shaped telescopic slide drives the flat plate to move synchronously, and the flat plate drives the wave spring plate to slide synchronously along the bottom of the outer wall of the pipe, and the rubber pad of the outer wall of the wave spring plate slides synchronously along the outer wall of the pipe. At the same time, after the wave spring plate is subjected to resistance force during horizontal sliding, the plate's own hinge axis will rotate inside the L-shaped telescopic slide; when the L-shaped telescopic slide slides, it drives the I-beam to move synchronously, and the I-beam contact with the bottom of the inner wall of the processing chamber generates friction and starts to rotate. When the I-beam rotates, the reciprocating spiral groove limits the built-in block of the resistance plate, so that the resistance plate can slide horizontally along the outer wall of the I-beam, and the resistance plate contacts and resists the bottom of the vibration component during the sliding process, and the bottom of the vibration component is deformed and bent. When the resistance plate passes over the vibration component, the bottom of the vibration component will swing back and forth to generate vibration when it is reset by its own toughness, and the wave spring plate is caused to vibrate synchronously through the transmission of force.

[0013] According to the above technical solution, the outer wall of the L-shaped telescopic slide is hinged on the bottom side of the inclined plate close to the axis of the cooling assembly, the outer wall of the wave spring plate is provided with a rubber pad, the outer wall of the resistance plate is slidably connected to the inner wall of the circular groove in the L-shaped telescopic slide, and the bottom of the vibration assembly is located on the movement trajectory of the resistance plate.

[0014] The present invention provides a cutting device with a limiting structure used in a winding structure wall tube production line. It has the following beneficial effects: (1) The present invention sets an anti-roughness device, and cooperates with an electric slide rail, a support plate, a transmission assembly, an electric push rod, an L-shaped telescopic plate, a cutting assembly, a round wheel assembly, an L-shaped spray gun, a spiral hose and a water tank to enable the cutting assembly to adapt to different types of pipes. This is different from a traditional static cutting assembly that requires workers to constantly adjust the cutting distance, thereby reducing cutting efficiency. At the same time, the round wheel assembly limits the cutting depth of the cutting assembly to ensure that the cutting assembly stops when it cuts through the pipe, thereby avoiding wear caused by contact and friction between the blade and the mold core; and the L-shaped spray gun is used to wet and cool the cutting assembly and the pipe cutting point from top to bottom, thereby avoiding the rapid heating of the high-density polyethylene pipe during the cutting process, resulting in melting and deformation of the cut surface, and preventing the pipe cut surface from affecting the cutting smoothness due to deformation, thereby preventing burrs and roughness, which leads to extended work time for workers to trim the pipe cut surface.

[0015] (2) The present invention sets an anti-overheating device, and cooperates with a transmission component, a cooling component, a limit rod, a filter plate, a U-shaped plate, a telescopic block, an anti-skid wheel, a rotating rod and a spoiler. The filter plate is close to the mold core to reduce the distance between the water source and the top of the water source, so as to avoid the water source from increasing the splashing range when it falls due to the large distance, thereby increasing the humidity inside the processing chamber and causing the parts to oxidize faster. At the same time, the cutting debris in the water source is intercepted to facilitate the staff to clean it up in a centralized manner. At the same time, the cooling component cools the water source collected inside itself, and disturbs the water source through the spoiler during the opening of the filter plate, thereby accelerating the emission rate of the cold air in the water source, thereby reducing the overall temperature inside the processing chamber, avoiding the pipe from overheating due to the pipe not being completely cooled after processing, which increases the probability of the cutting debris adhering to the outer wall of the cutting component during the cutting process.

[0016] (3) The present invention sets an anti-sway device, and cooperates with a filter plate, a transmission plate, a swing plate, an inclined plate, an L-shaped telescopic slide plate, a flat plate, a wave spring plate, an I-beam, a contact plate and a vibration component. By relying on the elasticity of the L-shaped telescopic slide plate and the deformation elasticity of the wave spring plate, the wave spring plate can be adapted to support pipes of different thicknesses. The flat plate and the rubber pad enable the wave spring plate to fit the outer wall of the pipe more closely, thereby avoiding shaking during cutting and causing the section to be tilted. At the same time, the wave spring plate can slide along the outer wall of the pipe more smoothly with the help of vibration force, thereby avoiding jamming and pulling. At the same time, the rubber pad can fit the thread of the outer wall of the pipe more easily under the drive of the wave spring plate with the help of vibration, thereby further improving the supporting effect of the wave spring plate on the pipe on the original basis. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 A schematic diagram of the present invention as a whole; Figure 2 It is a cross-sectional schematic diagram of the present invention as a whole; Figure 3 This is a schematic diagram of the anti-roughness device of the present invention from a back view; Figure 4 This is a schematic diagram of the bottom perspective of the anti-roughness device of the present invention; Figure 5 It is a schematic diagram of the overheating prevention device of the present invention; Figure 6 It is a cross-sectional schematic diagram of the overheating prevention device of the present invention; Figure 7 It is a schematic diagram of the anti-sway device of the present invention; Figure 8 It is a schematic diagram of an enlarged part of the structure of the anti-sway device of the present invention.

[0018] In the figure: 1. device body; 2. rotating assembly; 21. mold core; 3. processing chamber; 31. production parts; 4. anti-roughness device; 41. electric slide rail; 42. support plate; 43. transmission assembly; 44. electric push rod; 45. L-shaped telescopic plate; 46. cutting assembly; 47. round wheel assembly; 48. L-shaped spray gun; 49. spiral hose; 410. water tank; 5. anti-overheating device; 51. cooling assembly; 52. limit rod; 53. filter plate; 54. U-shaped plate; 55. telescopic block; 56. anti-skid wheel; 57. rotating rod; 58. spoiler; 6. anti-sway device; 61. transmission plate; 62. swing plate; 63. inclined plate; 64. L-shaped telescopic slide plate; 65. flat plate; 66. wave spring plate; 67. I-beam; 68. contact plate; 69. vibration assembly. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0020] See also Figure 1-Figure 8 One embodiment of the present invention is: a cutting device with a limiting structure used in a winding structure wall tube production line, comprising a device body 1, a rotating assembly 2 is arranged on the top of the device body 1, the rotating assembly 2 is driven by an external motor, a mold core 21 is fixedly installed on one side of the rotating assembly 2 close to the axis of the device body 1, a processing chamber 3 is arranged at the bottom of the inner wall of the device body 1, and a production component 31 is arranged on the back of the device body 1; An anti-roughness device 4 is provided on the left side of the processing chamber 3, an anti-overheating device 5 is provided below the anti-roughness device 4, and an anti-swaying device 6 is provided on the right side of the anti-overheating device 5; The anti-roughness device 4 includes an electric slide rail 41, the left side of the electric slide rail 41 is fixedly installed on the left side of the inner wall of the processing chamber 3, a support plate 42 is arranged on the right side of the electric slide rail 41, a transmission component 43 is slidably installed on the left side of the support plate 42, the left side of the transmission component 43 is slidably installed inside the electric slide rail 41, an electric push rod 44 is fixedly installed on one side of the back of the transmission component 43, the electric push rod 44 consists of a fixed end and a telescopic end, an L-shaped telescopic plate 45 is fixedly installed on one end of the back of the telescopic end of the electric push rod 44, the front side of the fixed end of the L-shaped telescopic plate 45 is fixedly installed on the back of the transmission component 43, a cutting component 46 is fixedly installed on the right side of the back of the telescopic end of the L-shaped telescopic plate 45, a round wheel component 47 is fixedly installed on the left side of the back of the telescopic end of the L-shaped telescopic plate 45, and the round wheel in the round wheel component 47 is rotatably installed, and an L-shaped spray gun 48 is fixedly installed on the top of the telescopic end of the L-shaped telescopic plate 45. A spiral hose 49 is passed through and fixedly installed on the top of the L-shaped spray gun 48, and a water tank 410 is fixedly installed on the top of the spiral hose 49. The above cooperation enables the cutting component 46 to adapt to different types of pipes. The traditional static cutting component 46 requires the staff to constantly adjust the cutting distance to reduce the cutting efficiency. At the same time, the round wheel component 47 limits the cutting depth of the cutting component 46 to ensure that the cutting component 46 stops as soon as it cuts through the pipe to avoid wear caused by contact and friction between the blade and the mold core 21; the above cooperation enables the L-shaped spray gun 48 to wet and cool the cutting component 46 and the pipe cutting point from top to bottom to avoid the rapid heating of the high-density polyethylene pipe during the cutting process, resulting in melting and deformation of the cut surface, and to prevent the pipe cut surface from affecting the cutting smoothness due to deformation, thereby preventing burrs and roughness, which leads to extended work time for staff to trim the pipe cut surface.

[0021] The bottom of the support plate 42 is fixedly mounted on the bottom of the inner wall of the processing chamber 3 . The cutting assembly 46 and the round wheel assembly 47 are coaxial, and the outer wall of the round wheel assembly 47 is convex from the cutting assembly 46 . The outer wall of the water tank 410 passes through and is fixedly mounted inside the processing chamber 3 .

[0022] When in use, the pipe, i.e. the winding structure wall pipe, is inserted into and sleeved on the outer wall of the mold core 21. When the pipe port needs to be cut, the electric slide rail 41 is started, and the electric slide rail 41 drives the transmission component 43 to slide upward inside itself. When the right side of the transmission component 43 slides along the outer wall of the support plate 42, the support plate 42 limits the transmission component 43 to ensure its vertical movement. The transmission component 43 drives the electric push rod 44 to move synchronously, and the electric push rod 44 drives the L-shaped telescopic plate 45 to move synchronously. When the L-shaped telescopic plate 45 rises to the predetermined cutting height of the pipe, the electric push rod 44 drives the L-shaped telescopic plate 45 to move synchronously. The slide rail 41 stops operating, and the electric push rod 44 starts. The telescopic end of the electric push rod 44 pushes the telescopic end of the L-shaped telescopic plate 45 toward the mold core 21. The telescopic end of the L-shaped telescopic plate 45 drives the cutting assembly 46 and the round wheel assembly 47 to move synchronously. At this time, the cutting assembly 46 is started to cut the pipe sleeved on the outer wall of the mold core 21. The cutting assembly 46 gradually penetrates into the inside of the pipe with the help of the telescopic end of the electric push rod 44. Since the outer wall of the round wheel assembly 47 is convex to the cutting assembly 46, when the round wheel assembly 47 contacts the outer wall of the mold core 21, the rotating assembly 2 passes through The external motor rotates and drives the mold core 21 to rotate. At this time, the mold core 21 drives the pipe to rotate and contact the cutting assembly 46 to complete the cutting work of the socket. Through the above cooperation, the cutting assembly 46 can adapt to different types of pipes. The traditional static cutting assembly 46 requires the staff to constantly adjust the cutting distance to reduce the cutting efficiency. At the same time, the circular wheel assembly 47 limits the cutting depth of the cutting assembly 46 to ensure that the cutting assembly 46 stops when it cuts through the pipe to avoid wear caused by contact and friction between the blade and the mold core 21; the telescopic end of the L-shaped telescopic plate 45 drives the L-shaped The spray gun 48 moves synchronously, and the L-shaped spray gun 48 guides the cooling water source inside the water tank 410 into itself through the spiral hose 49. The L-shaped spray gun 48 is started synchronously when the cutting component 46 is started. Through the above cooperation, the L-shaped spray gun 48 wets and cools the cutting component 46 and the pipe cutting point from top to bottom, avoiding the rapid heating of the high-density polyethylene pipe during the cutting process, causing the cut surface to melt and deform, and preventing the pipe cut surface from affecting the cutting smoothness due to deformation, resulting in burrs and roughness, which leads to extended working hours for the staff to repair the pipe cut surface.

[0023] See also Figure 1-Figure 8 , based on the above embodiment, another embodiment of the present invention further includes an overheating prevention device 5; The anti-overheating device 5 includes a cooling component 51, a plurality of limit rods 52 and a filter plate 53. The bottom of the cooling component 51 is fixedly installed on the bottom of the inner wall of the processing chamber 3, and the cooling component 51 is located below the mold core 21. The bottoms of the plurality of limit rods 52 are fixedly installed at the top corners of the cooling component 51. The front of the filter plate 53 is fixedly installed on the back edge of the transmission component 43. The inside of the filter plate 53 penetrates and is slidably installed on the outer wall of the limit rod 52. Through the above coordination, the filter plate 53 is close to the mold core 21 to reduce the distance between the water source and the top of itself, so as to avoid the water source from increasing the sputtering range when it is hit due to the large distance, thereby increasing the humidity inside the processing chamber 3 and causing the oxidation speed of parts to be accelerated. At the same time, the cutting debris in the water source is intercepted to facilitate the staff to clean it up in a centralized manner.

[0024] The anti-overheating device 5 also includes a U-shaped plate 54, a telescopic block 55, an anti-skid wheel 56, a rotating rod 57 and an interference flow plate 58. The top of the U-shaped plate 54 is hinged at the bottom edge of the filter plate 53, the bottom of the telescopic block 55 is slidably installed on the bottom of the inner wall of the cooling component 51, the top of the fixed end of the telescopic block 55 is hinged at the bottom of the U-shaped plate 54, the anti-skid wheel 56 is rotatably installed on the side of the telescopic block 55 close to the axis of the cooling component 51, both ends of the rotating rod 57 are fixedly installed on the inner wall of the anti-skid wheel 56, and the interference flow plate 58 is fixedly installed on the outer wall of the rotating rod 57. Through the above cooperation with the cooling component 51, the water source collected inside itself is cooled down. In the process of opening the filter plate 53, the water source is disturbed by the spoiler 58 to accelerate the dissipation speed of the cold air in the water source, thereby reducing the overall temperature inside the processing chamber 3, avoiding the pipe from being overheated due to incomplete cooling after processing, resulting in an increased probability of cutting debris adhering to the outer wall of the cutting component 46 during the cutting process.

[0025] A torsion spring is arranged between the top of the U-shaped plate 54 and the filter plate 53 , the outer wall of the anti-skid wheel 56 contacts the bottom of the inner wall of the cooling assembly 51 , and the flow interference plates 58 are equidistantly distributed on the outer wall of the rotating rod 57 .

[0026] When in use, the transmission component 43 moves upward and drives the filter plate 53 to move synchronously. The filter plate 53 slides vertically upward along the outer wall of the limit rod 52. At this time, the filter plate 53 is separated from the cover of the cooling component 51, prompting the filter plate 53 to contact the cooling water source falling during cutting in a direction closer to the mold core 21. Through the above cooperation, the filter plate 53 is close to the mold core 21 to reduce the distance between the water source and its own top, so as to avoid the water source from increasing the sputtering range when it falls due to the large distance, thereby increasing the humidity inside the processing chamber 3 and causing the oxidation speed of parts to accelerate. At the same time, the cutting debris in the water source is intercepted to facilitate the staff to clean it up in a centralized manner; the filter plate 53 drives the U-shaped plate 54 to move synchronously when following the transmission component 43 to move upward. The bottom of the U-shaped plate 54 is restricted by the telescopic block 55, prompting its own hinge shaft to start to rotate. At this time, the U-shaped The plate 54 drives the telescopic block 55 to slide toward the inner wall of the cooling component 51 with its own hinge axis as the axis, and the telescopic block 55 drives the anti-skid wheel 56 to move synchronously. When the anti-skid wheel 56 slides along the bottom of the inner wall of the cooling component 51, friction is generated and the anti-skid wheel 56 starts to rotate. When the anti-skid wheel 56 rotates, it drives the rotating rod 57 to rotate, and the rotating rod 57 drives the spoiler 58 to rotate. The spoiler 58 disturbs the cooling water source collected inside the cooling component 51. Through the above cooperation with the cooling component 51, the water source collected inside itself is cooled down. In the process of opening the filter plate 53, the water source is disturbed by the spoiler 58 to accelerate the dissipation rate of the cold air in the water source, thereby reducing the overall temperature inside the processing chamber 3, avoiding the pipe from overheating due to incomplete cooling after processing, which increases the probability of cutting debris adhering to the outer wall of the cutting component 46 during the cutting process.

[0027] See also Figure 1-Figure 8 , based on the above embodiment, another embodiment of the present invention further includes an anti-swaying device 6; The anti-sway device 6 includes a transmission plate 61 and a swing plate 62. The transmission plate 61 is hinged to the outer wall of the right end of the filter plate 53 through a torsion spring. The bottom of the swing plate 62 is hinged to the outer wall of the right side of the cooling component 51. The swing plate 62 is hinged to the bottom of the transmission plate 61 on the side close to the cooling component 51. Through the above cooperation, an inclined angle is formed between the swing plate 62 and the filter plate 53. The splashing water droplets are shielded by the inclined surface of the swing plate 62, further preventing water from splashing everywhere and causing the moisture inside the processing chamber 3 to increase.

[0028] The anti-sway device 6 also includes an inclined plate 63, an L-shaped telescopic slide plate 64, a flat plate 65, a wave spring plate 66, an I-shaped column 67, a contact plate 68, and a vibration component 69. The top of the inclined plate 63 is hinged to the outer wall of the swing plate 62 near the axis of the cooling component 51. The bottom of the L-shaped telescopic slide plate 64 is slidably installed at the bottom of the inner wall of the processing chamber 3, and a circular groove is provided inside the L-shaped telescopic slide plate 64. The bottom of the flat plate 65 is hinged to the inside of the telescopic end of the L-shaped telescopic slide plate 64 through a torsion spring. A wave spring plate 66 is fixedly installed on the top of the flat plate 65. Both ends of the I-shaped column 67 are rotatably installed in the circular groove of the L-shaped telescopic slide plate 64, and a reciprocating spiral groove is provided on the outer wall of the I-shaped column 67. The outer wall of the I-shaped column 67 contacts the bottom of the inner wall of the processing chamber 3. The contact plate 68 penetrates the inside and is movably installed on the processing chamber 3. At the outer wall of the column 67, the right side of the vibration component 69 is fixedly installed on the side of the L-shaped telescopic slide plate 64 close to the cooling component 51. Through the above cooperation, relying on the elasticity of the L-shaped telescopic slide plate 64 and the deformation elasticity of the wave spring plate 66, the wave spring plate 66 can adapt to supporting pipes of different thicknesses, and the flat plate 65 and the rubber pad enable the wave spring plate 66 to fit the outer wall of the pipe more closely, avoiding shaking during cutting and causing the section to be tilted; through the above cooperation, the wave spring plate 66 can make use of the vibration force to make it slide more smoothly along the outer wall of the pipe, avoiding jamming and pulling. At the same time, with the help of vibration, the rubber pad can be driven by the wave spring plate 66 to fit the thread of the outer wall of the pipe more easily, further improving the supporting effect of the wave spring plate 66 on the pipe on the original basis.

[0029] The outer wall of the L-shaped telescopic slide plate 64 is hinged on the bottom of the inclined plate 63 near the axis of the cooling component 51, the outer wall of the wave spring plate 66 is provided with a rubber pad, the outer wall of the contact plate 68 is slidably connected to the inner wall of the circular groove in the L-shaped telescopic slide plate 64, and the bottom of the vibration component 69 is located on the movement trajectory of the contact plate 68.

[0030] When in use, the filter plate 53 moves upward and drives the transmission plate 61 to move synchronously, and the transmission plate 61 drives the swing plate 62 to move synchronously. The bottom of the swing plate 62 is restricted by the cooling assembly 51, which causes its own hinge shaft to generate a rotational force. At this time, the swing plate 62 turns over in the direction close to the filter plate 53 with its own hinge shaft as the axis. Through the above cooperation, an inclined angle is formed between the swing plate 62 and the filter plate 53, and the splashing water droplets are shielded by the inclined surface of the swing plate 62, further preventing the water source from splashing everywhere and causing the moisture inside the processing chamber 3 to increase. At the same time, the swing plate 62 drives the inclined plate 63 to move synchronously, and the bottom of the inclined plate 63 is restricted by the cooling assembly 51. The restriction of the L-shaped telescopic slide 64 causes its own hinge axis to start rotating. At this time, the inclined plate 63 can pull the bottom of the L-shaped telescopic slide 64 to slide along the bottom of the inner wall of the processing chamber 3 toward the cooling component 51. The telescopic end of the L-shaped telescopic slide 64 drives the flat plate 65 to move synchronously. The flat plate 65 drives the wave spring plate 66 to slide synchronously along the bottom of the outer wall of the pipe. The rubber pad on the outer wall of the wave spring plate 66 slides synchronously along the outer wall of the pipe. At the same time, when the wave spring plate 66 is subjected to a resistance force during its horizontal sliding, the hinge axis of the flat plate 65 itself will rotate inside the L-shaped telescopic slide 64. Through the above cooperation, relying on the L-shaped telescopic slide 6 The elasticity of 4 and the deformation elasticity of the wave spring plate 66 enable the wave spring plate 66 to adapt to supporting pipes of different thicknesses, and the flat plate 65 and the rubber pad enable the wave spring plate 66 to fit the outer wall of the pipe more closely, avoiding shaking during cutting and causing the section to be tilted; when the L-shaped telescopic slide plate 64 slides, it drives the I-beam column 67 to move synchronously, and the I-beam column 67 contacts the bottom of the inner wall of the processing chamber 3 to generate friction and start to rotate. When the I-beam column 67 rotates, the reciprocating spiral groove limits the built-in block of the contact plate 68, so that the contact plate 68 can slide horizontally along the outer wall of the I-beam column 67, and the contact plate 68 contacts the inner wall of the processing chamber 3 during the sliding process. And it resists the bottom of the vibration component 69, and the bottom of the vibration component 69 is deformed and bent. When the resistance plate 68 passes over the vibration component 69, the bottom of the vibration component 69 will swing back and forth to generate vibration when it is reset by its own toughness, and the wave spring plate 66 is caused to vibrate synchronously through the transmission of force. Through the above cooperation, the wave spring plate 66 can make use of the vibration force to make it slide along the outer wall of the pipe more smoothly, avoiding the occurrence of jamming and pulling. At the same time, with the help of vibration, the rubber pad can be driven by the wave spring plate 66 to fit the thread of the outer wall of the pipe more easily, thereby further improving the supporting effect of the wave spring plate 66 on the pipe on the original basis.

[0031] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A cutting device with a limiting structure used in a winding structure wall tube production line, comprising a device body (1), characterized in that: A rotating assembly (2) is arranged on the top of the device body (1), the rotating assembly (2) is driven by an external motor, a mold core (21) is fixedly mounted on one side of the rotating assembly (2) close to the axis of the device body (1), a processing chamber (3) is arranged at the bottom of the inner wall of the device body (1), and a production component (31) is arranged on the back of the device body (1); An anti-roughness device (4) is provided on the left side of the processing chamber (3), an anti-overheating device (5) is provided below the anti-roughness device (4), and an anti-swaying device (6) is provided on the right side of the anti-overheating device (5); The anti-roughness device (4) comprises an electric slide rail (41), the left side of the electric slide rail (41) being fixedly mounted on the left side of the inner wall of the processing chamber (3), the right side of the electric slide rail (41) being provided with a support plate (42), the left side of the support plate (42) being slidably mounted with a transmission assembly (43), the left side of the transmission assembly (43) being slidably mounted inside the electric slide rail (41), the back side of the transmission assembly (43) being fixedly mounted with an electric push rod (44), the electric push rod (44) being composed of a fixed end and a telescopic end, and the back side of the telescopic end of the electric push rod (44) being fixedly mounted with an L-shaped telescopic plate ( 45), the front side of the fixed end of the L-shaped telescopic plate (45) is fixedly mounted on the back side of the transmission assembly (43), a cutting assembly (46) is fixedly mounted on the right side of the back side of the telescopic end of the L-shaped telescopic plate (45), a round wheel assembly (47) is fixedly mounted on the left side of the back side of the telescopic end of the L-shaped telescopic plate (45), and the round wheel in the round wheel assembly (47) is rotatably mounted, an L-shaped spray gun (48) is fixedly mounted on the top of the telescopic end of the L-shaped telescopic plate (45), a spiral hose (49) is penetrated and fixedly mounted on the top of the L-shaped spray gun (48), and a water tank (410) is fixedly mounted on the top of the spiral hose (49).

2. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 1 is characterized in that: The bottom of the support plate (42) is fixedly mounted on the bottom of the inner wall of the processing chamber (3); the cutting assembly (46) and the round wheel assembly (47) are coaxial, and the outer wall of the round wheel assembly (47) is convex from the cutting assembly (46); and the outer wall of the water tank (410) passes through and is fixedly mounted inside the processing chamber (3).

3. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 2 is characterized in that: The overheating prevention device (5) comprises a cooling component (51), a plurality of limiting rods (52) and a filter plate (53); the bottom of the cooling component (51) is fixedly mounted on the bottom of the inner wall of the processing chamber (3); the cooling component (51) is located below the mold core (21); the bottoms of the plurality of limiting rods (52) are fixedly mounted on the top corners of the cooling component (51); the front of the filter plate (53) is fixedly mounted on the back edge of the transmission component (43); and the inside of the filter plate (53) passes through and is slidably mounted on the outer wall of the limiting rod (52).

4. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 3 is characterized in that: The overheating prevention device (5) further comprises a U-shaped plate (54), a telescopic block (55), an anti-skid wheel (56), a rotating rod (57) and some spoiler plates (58), wherein the top of the U-shaped plate (54) is hinged at the bottom edge of the filter plate (53), the bottom of the telescopic block (55) is slidably mounted on the bottom of the inner wall of the cooling component (51), the top of the fixed end of the telescopic block (55) is hinged at the bottom of the U-shaped plate (54), the anti-skid wheel (56) is rotatably mounted on one side of the telescopic block (55) close to the axis of the cooling component (51), both ends of the rotating rod (57) are fixedly mounted on the inner wall of the anti-skid wheel (56), and a plurality of spoiler plates (58) are fixedly mounted on the outer wall of the rotating rod (57).

5. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 4, characterized in that: A torsion spring is provided between the top of the U-shaped plate (54) and the filter plate (53); the outer wall of the anti-slip wheel (56) contacts the bottom of the inner wall of the cooling assembly (51); and a plurality of spoilers (58) are equidistantly distributed on the outer wall of the rotating rod (57).

6. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 5, characterized in that: The anti-sway device (6) comprises a transmission plate (61) and a swing plate (62); the transmission plate (61) is hinged to the outer wall of the right end of the filter plate (53) via a torsion spring; the bottom of the swing plate (62) is hinged to the outer wall of the right side of the cooling assembly (51); and the side of the swing plate (62) close to the cooling assembly (51) is hinged to the bottom of the transmission plate (61).

7. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 6, characterized in that: The anti-sway device (6) further comprises an inclined plate (63), an L-shaped telescopic slide plate (64), a flat plate (65), a wave spring plate (66), an I-shaped column (67), a contact plate (68), and a vibration assembly (69); the top of the inclined plate (63) is hinged to the outer wall of the swing plate (62) near the axis of the cooling assembly (51); the bottom of the L-shaped telescopic slide plate (64) is slidably mounted on the bottom of the inner wall of the processing chamber (3); a circular groove is provided inside the L-shaped telescopic slide plate (64); the bottom of the flat plate (65) is hinged to the L-shaped telescopic slide plate through a torsion spring. Inside the telescopic end of the plate (64), a wave spring plate (66) is fixedly installed on the top of the flat plate (65), both ends of the I-beam column (67) are rotatably installed inside the circular groove of the L-shaped telescopic slide plate (64), and the outer wall of the I-beam column (67) is provided with a reciprocating spiral groove, the outer wall of the I-beam column (67) contacts the bottom of the inner wall of the processing chamber (3), the contact plate (68) penetrates inside and is movably installed on the outer wall of the I-beam column (67), and the right side of the vibration component (69) is fixedly installed on the side of the L-shaped telescopic slide plate (64) close to the cooling component (51).

8. The cutting device with a limiting structure used in a winding structure wall tube production line according to claim 7, characterized in that: The outer wall of the L-shaped telescopic slide plate (64) is hinged on the bottom of the inclined plate (63) near the axis of the cooling component (51), the outer wall of the wave spring plate (66) is provided with a rubber cushion, the outer wall of the resistance plate (68) is slidably connected to the inner wall of the circular groove in the L-shaped telescopic slide plate (64), and the bottom of the vibration component (69) is located on the movement trajectory of the resistance plate (68).

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