Low-energy-consumption integral cold insulation pipe bracket steel hoop machining jig

Abstract

The invention discloses a low-energy-consumption integral cold insulation pipe bracket steel hoop machining jig, and belongs to the technical field of metal machining dies. Comprising an upper die base, and a stamping part is inserted into the middle of the upper die base; comprising a lower die base, a stamping concave base is fixedly connected to one side of the lower die base, a frame selection assembly used for limiting a steel billet is arranged outside the stamping concave base, the stamping concave base and the impact corner of a variable-diameter convex ring are chamfered, two notch grooves are formed in the outer portions of the stamping concave base and the variable-diameter convex ring in a symmetrical structure, and transmission rollers are rotationally connected into the notch grooves; through holes are formed in the middle of the stamping concave base and the middle of the variable-diameter convex ring, and elastic material pushing pieces are fixedly connected into the through holes. By arranging the stamping part with the variable-diameter convex rings with different diameters, the use efficiency of the die is remarkably improved.

Description

Technical Field

[0001] The present application relates to the technical field of metal processing molds, and more specifically, to a low-energy-consumption integral cold-insulation pipe support steel clamp processing mold. Background Art

[0002] In industries like energy transportation and chemical engineering, low-energy, integrated cold-insulation pipe supports are widely used in low-temperature piping systems to reduce cooling loss and ensure pipeline stability. As a key component, the quality and machining precision of the cold-insulation pipe support's steel clamps significantly impact its performance.

[0003] Traditional steel clamp processing tools have numerous shortcomings. For one thing, different steel clamp specifications require custom-made tools, resulting in a wide variety of molds. This not only increases mold production costs and processing cycles, but also takes up a significant amount of storage space. Furthermore, existing processing tools struggle to precisely control the clamp's dimensional accuracy and surface quality during the molding process, making it prone to dimensional deviations and surface scratches, impacting the overall performance and service life of the cold-insulated pipe support. Furthermore, some tools consume high energy during processing, which is inconsistent with current energy-saving and environmentally friendly trends.

[0004] Therefore, it is of great practical significance to develop a low-energy-consumption integral cold-insulation pipe support steel clamp processing die that can overcome the above-mentioned defects.

[0005] In view of this, a low-energy-consumption integral cold-insulation pipe support steel clamp processing die is proposed. Summary of the Invention

[0006] The purpose of the present invention is to provide a low-energy-consumption integral cold-insulation pipe support steel clamp processing die to solve the problems raised in the above background technology.

[0007] To achieve the above object, the present invention provides the following technical solutions: A low-energy-consumption, integral, cold-insulation pipe support steel clamp processing die, comprising: an upper die base, a stamping part being inserted and installed in the middle of the upper die base, the stamping part comprising an extrusion convex head with a semicircular structure, a plurality of reducing convex rings of different diameters being sleeved on the outer surface of the extrusion convex head, a connector being inserted between the reducing convex ring and the extrusion convex head; It includes a lower die base, a stamping recess is fixedly connected to one side of the lower die base, a frame selection component for limiting the steel billet is provided on the outside of the stamping recess, and the impact corners of the stamping recess and the reducing convex ring are chamfered, and the outside thereof is a symmetrical structure with two notches, and a transmission roller is rotatably connected in the notch grooves, and a through hole is opened in the middle of the stamping recess and the reducing convex ring, and an elastic pushing piece is fixed in the through hole.

[0008] As an optional solution of the technical solution of this application document, the upper mold base is arranged in a U-shaped structure, and a buffer component is fixedly connected between the upper mold base and the lower mold base arranged in the U-shaped structure.

[0009] As an optional solution to the technical solution of this application document, the buffer assembly includes a guide cylinder fixedly connected to the two ends of the upper mold base, a guide column is slidably connected inside the guide cylinder, the guide column is fixed to the two ends of the lower mold base, and a buffer spring is arranged between the guide column and the guide cylinder.

[0010] As an optional solution to the technical solution of this application document, the buffer spring is internally sleeved with a compression cylinder arranged in an I-shape, the one-way air inlet end of the compression cylinder is fixedly connected to an oil extraction pipe, and the one-way exhaust end thereof is fixedly connected to an oil injection pipe, the oil injection pipe and the oil extraction pipe both pass through the guide cylinder, and are respectively connected to an oil box and an oil injection copper pipe, and the oil box and the oil injection copper pipe are both fixedly connected to the outside of the upper mold base.

[0011] As an optional solution to the technical solution of this application document, the connecting part includes a plug-in column with a T-shaped structure and a plug-in limit located in the middle of the extrusion protrusion. One end of the plug-in column is threadedly connected to a pressure cap screw, and the other two ends are slidably connected to a clamping column arranged in an L-shaped structure. The clamping column and the plug-in column are limited by a limiting bolt, and the clamping column is plug-in-fitted with the reducing protrusion ring.

[0012] As an optional solution to the technical solution of this application document, the frame selection component includes a slide groove distance adjustment frame symmetrically arranged on both ends of the stamping recess, and two extrusion frames are symmetrically connected in sliding connection between the two slide groove distance adjustment frames. An elastic telescopic part is fixed between the extrusion frame and the lower die base, and the extrusion frame and the elastic pushing part are abutted to limit the position.

[0013] As an optional solution to the technical solution of this application document, the elastic telescopic part includes two guide rods fixedly connected to one side of the extrusion frame, the outside of the guide rod is slidably connected to a guide cylinder, a spring part is arranged between the guide cylinder and the guide rod, and the guide cylinder is fixed to the inside of the lower mold base.

[0014] As an optional solution of the technical solution of this application document, a plurality of through holes are opened on the outside of the transmission roller, and paraffin columns are embedded in the through holes.

[0015] As an optional solution to the technical solution of this application document, the elastic pushing part includes a limiting cylinder, and the inside of the limiting cylinder is elastically and slidingly connected to an extrusion column through a spring part. Two connecting ropes are fixed to the outside of one end of the extrusion column, and the other end of the connecting rope is fixed to a blocking column rod.

[0016] As an optional solution to the technical solution of this application document, one end of the blocking column rod is configured as a spherical structure.

[0017] Compared with the prior art, the present invention has the following beneficial effects: 1. This application achieves a significant improvement in the efficiency of mold use by providing a stamping part with multiple reducing cams of different diameters. The reducing cams are distributed in a stepped manner on the surface of the stamping part, and their diameter specifications cover the size range of common steel clamps. The operator can quickly select a reducing cam of suitable diameter according to the design size of the steel clamp, and then use a high-strength alloy connector to firmly fix the reducing cam to the extrusion cam. This modular design breaks the limitation of "one mold for one use". A set of molds can be compatible with the production of steel clamps of various specifications, effectively solving the problem of waste of resources and high cost of traditional molds, and greatly reducing the mold production cost, processing cycle and storage space occupancy.

[0018] 2. This application constructs an efficient buffering and lubrication system by setting a buffer assembly between the upper die base and the lower die base. During stamping, the upper die base slides precisely on the guide column along the guide cylinder, and the buffer spring absorbs and disperses the stamping impact force through elastic deformation, reducing the stress of the die and the billet, avoiding die cracking and billet surface defects, maintaining stable stamping, and ensuring accuracy and consistency. At the same time, the compression cylinder in the buffer spring realizes automatic lubrication, and its one-way air inlet end draws oil from the oil box, and the one-way exhaust end accurately sprays the lubricating oil to the working part of the mold through the oil injection pipe and the oil injection copper pipe, forming an oil film to reduce the friction coefficient, reduce mold wear, improve the surface finish and forming accuracy of the steel clamp, avoid surface strain, scratches and other quality problems, and ensure the production of high-quality cold-insulation pipe support steel clamps.

[0019] 3. This application uses a frame selection assembly to precisely position the steel billet. A symmetrically structured slideway spacing frame, mounted on both ends of the punching recess, can be adjusted according to the size of the steel billet. The two extrusion frames slide between the slideway spacing frames and, with the aid of elastic telescopic parts, limit and fix the steel billet, ensuring the stable position of the steel billet during punching and improving processing accuracy. After punching is completed, the elastic pusher operates, and the spring in the limit cylinder pushes the extrusion column, which in turn drives the stop column rod via the connecting rope. The spherical end of the stop column rod intercepts the limit extrusion frame, facilitating the ejection of the processed steel clamp. At the same time, the frame selection assembly can flexibly adjust the discharge spacing according to the installation requirements of the variable diameter cam, ensuring the reliability and efficiency of processing steel billets with different half-hoop diameters. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 This is a schematic diagram of the overall structure of a low-energy-consumption, integral, cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application on the left side; Figure 2 This is a schematic diagram of the overall structure of a low-energy-consumption, integral, cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 3This is a schematic diagram of the disassembled stamping structure of a low-energy-consumption integral cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 4 This is a schematic cross-sectional view of the buffer component structure of a low-energy-consumption, integral, cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 5 This is a schematic diagram of the disassembled structure of the connector of a low-energy-consumption, integral cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 6 This is a schematic diagram of the frame assembly structure of a low-energy-consumption, integral, cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 7 This is a schematic diagram of the elastic expansion member structure of a low-energy-consumption integral cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 8 This is a schematic diagram of the transmission roller structure of a low-energy-consumption integral cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application; Figure 9 This is a schematic cross-sectional structural diagram of the elastic pusher of a low-energy-consumption integral cold-insulation pipe support steel clamp processing die disclosed in a preferred embodiment of the present application.

[0021] Explanation of the reference numerals in the figure: 100, upper die base; 200, lower die base; 300, stamping part; 301, extrusion convex head; 302, reducing convex ring; 400, connecting part; 401, plug column; 402, cap screw; 403, clamping column; 500, stamping recess; 600, frame selection component; 601, slideway distance adjustment frame; 602, extrusion frame; 603, elastic telescopic part; 604, guide rod; 60 5. Guide cylinder; 700. Drive roller; 701. Paraffin column; 800. Elastic pusher; 801. Limit cylinder; 802. Extrusion column; 803. Connecting rope; 804. Blocking column rod; 900. Buffer assembly; 901. Guide cylinder; 902. Guide column; 903. Buffer spring; 904. Compression cylinder; 905. Oil extraction pipe; 906. Oil injection pipe; 907. Oil box; 908. Oil injection copper pipe. DETAILED DESCRIPTION

[0022] In order to better understand the above technical solution, the above technical solution will be described in detail below with reference to the accompanying drawings and specific implementation methods.

[0023] Reference Figure 1-3The low-energy-consumption integral cold-insulation pipe support steel clamp processing die described in the embodiment of the present application includes a low-energy-consumption integral cold-insulation pipe support steel clamp processing die, which includes an upper die base 100, a stamping part 300 is plugged and installed in the middle of the upper die base 100, and the stamping part 300 includes an extrusion convex head 301 with a semicircular structure. The extrusion convex head 301 is externally provided with a plurality of reducing convex rings 302 of different diameters, and a connecting piece 400 is plugged between the reducing convex ring 302 and the extrusion convex head 301; It includes a lower die base 200, a stamping recess 500 is fixedly connected to one side of the lower die base 200, and a frame selection component 600 for limiting the steel billet is provided on the outside of the stamping recess 500, and the impact corners of the stamping recess 500 and the reducing convex ring 302 are chamfered, and the outside thereof is a symmetrical structure with two notched grooves, and a transmission roller 700 is rotatably connected in the notched grooves, and a through hole is provided in the middle of the stamping recess 500 and the reducing convex ring 302, and an elastic pushing piece 800 is fixed in the through hole.

[0024] This low-energy, integrated cold-insulation pipe support steel clamp processing die significantly improves die efficiency by featuring a stamped part 300 with variable diameter reducing collars 302. Specifically, the stepped, stepped reducing collars 302 on the surface of the stamped part 300 cover the diameter range of common steel clamp sizes. When processing a steel clamp of a specific specification, the operator can quickly identify and select the reducing collar 302 with the appropriate diameter based on the dimensional parameters on the design drawing. To ensure stability and precision during processing, a high-strength alloy connector 400 securely fastens the reducing collar 302 to the extrusion collar 301 via precision bolts and a dual locking mechanism using locating pins. This modular design breaks the "one mold, one use" limitation of traditional die sets, enabling a single die set to produce a variety of steel clamp sizes. This effectively addresses the resource waste and high costs associated with customizing specialized die sets for different steel clamp sizes.

[0025] Reference Figure 4 and Figure 1In the low-energy-consumption integral cold-insulation pipe support steel clamp processing die recorded in the embodiment of the present application, the upper die base 100 is set in a U-shaped structure, and a buffer assembly 900 is fixed between the upper die base 100 and the lower die base 200 set in the U-shaped structure. The buffer assembly 900 includes a guide cylinder 901 fixed to both ends of the upper die base 100, and a guide column 902 is slidably connected in the guide cylinder 901. The guide column 902 is fixed to both ends of the lower die base 200, and the guide column 902 and the guide cylinder A buffer spring 903 is provided between 901, wherein a compression cylinder 904 is provided inside the buffer spring 903 in an I-shaped arrangement, the one-way air inlet end of the compression cylinder 904 is fixedly connected to an oil extraction pipe 905, and the one-way exhaust end thereof is fixedly connected to an oil injection pipe 906, the oil injection pipe 906 and the oil extraction pipe 905 both pass through the guide cylinder 901, and are respectively connected to an oil box 907 and an oil injection copper pipe 908, the oil box 907 and the oil injection copper pipe 908 are both fixedly connected to the outside of the upper mold base 100.

[0026] This low-energy, integrated cold-insulation pipe support steel clamp processing die utilizes a buffer assembly 900 positioned between the upper die base 100 and the lower die base 200 to create an efficient buffer and lubrication system. During the stamping process, when the press drives the upper die base 100 downward in a vertical direction, the guide cylinder 901 slides precisely along the axis of the guide column 902. The linear guide structure formed by the two effectively constrains the motion trajectory of the upper die base 100, preventing deviation. Simultaneously, the buffer spring 903, mounted on the guide column 902, absorbs and disperses the enormous impact force generated at the moment of stamping through its own elastic deformation when subjected to the downward pressure of the upper die base 100. This not only significantly reduces the stress on the die and billet during the stamping process, preventing local cracking of the die or defects such as dents and cracks on the billet surface due to stress concentration, but also maintains the smoothness of the stamping process through the spring's rebound action, ensuring the precision and consistency of each stamping action.

[0027] Furthermore, the compression cylinder 904 integrated within the buffer spring 903 features an innovative automatic lubrication mechanism. During the stamping process, the one-way air intake end of the compression cylinder 904 is connected to an oil extraction pipe 905, which in turn forms an oil circuit with an oil reservoir 907. As the volume of the compression cylinder 904 changes due to the spring's expansion and contraction, the one-way air intake end automatically draws lubricating oil from the oil reservoir 907. The one-way air exhaust end, on the other hand, is connected to an oil injection pipe 906, which precisely sprays lubricating oil through a copper injection pipe 908 onto the working surfaces of the mold, such as the mating surfaces of the punch and die and critical contact areas during steel clamp forming. This automatic lubrication method creates an oil film at the instant of mold-to-blank contact, effectively reducing friction, minimizing mold wear, and extending mold life. Furthermore, stable lubrication improves the surface finish and forming accuracy of the steel clamp, preventing quality issues such as surface scratches and nicks caused by insufficient lubrication, thus ensuring the reliable production of high-quality cold-insulation pipe support steel clamps.

[0028] Reference Figure 5 and Figure 1 The connecting piece 400 in the low-energy integral cold-insulation pipe support steel clamp processing mold recorded in the embodiment of the present application includes a plug-in column 401 with a T-shaped structure and a plug-in limit located in the middle of the extrusion protrusion 301. One end of the plug-in column 401 is threadedly connected to a pressure cap screw 402, and the other two ends are slidably connected to a clamping column 403 set in an L-shaped structure. The clamping column 403 and the plug-in column 401 are limited by a limiting bolt, and the clamping column 403 is plugged into and matched with the reducing protrusion ring 302.

[0029] The low-energy-consumption integral cold-insulation pipe support steel clamp processing mold uses the low-energy-consumption integral cold-insulation pipe support steel clamp processing mold and the unique design of the connecting piece 400 to limit the T-shaped plug column 401 to the middle of the extruded protrusion 301, and tighten it with the pressure cap screw 402, and then the L-shaped clamp column 403 with sliding connection at both ends is plugged into and matched with the reducing protrusion 302, and limited by the limiting bolt, so that the connection between the reducing protrusion 302 to be processed and the extruded protrusion 301 is firm, and the disassembled reducing protrusion 302 is connected and limited with the stamping recess 500 by the bolt structure, so that the reducing protrusion 302 can change its diameter. They can work together during the stamping process to ensure the stamping effect of the steel billet and the dimensional accuracy of the processed steel clamp.

[0030] Reference Figure 6 and Figure 7The frame selection component 600 in the low-energy integral cold-insulation pipe support steel clamp processing die recorded in the embodiment of the present application includes a slide groove distance adjustment frame 601 symmetrically arranged on both ends of the stamping recess 500, and two extrusion frames 602 are symmetrically connected in a sliding manner between the two slide groove distance adjustment frames 601. An elastic telescopic part 603 is fixed between the extrusion frame 602 and the lower die base 200, and the extrusion frame 602 is abutted against the elastic pushing member 800 for limiting position, wherein the elastic telescopic part 603 includes two guide rods 604 fixed to one side of the extrusion frame 602, and a guide cylinder 605 is slidably connected to the outside of the guide rod 604, a spring part is arranged between the guide cylinder 605 and the guide rod 604, and the guide cylinder 605 is fixed to the inside of the lower die base 200.

[0031] This low-energy, integrated cold-insulation pipe support steel clamp processing die utilizes a frame selection assembly 600 and a symmetrically arranged slideway spacing frame 601 at each end of a stamping recess 500, which can be adjusted according to the size of the steel billet. The steel billet is then limited and fixed by the sliding of two extrusion frames 602 between the slideway spacing frames 601 and the action of an elastic telescopic member 603, ensuring the positional stability of the steel billet during the stamping process, thereby improving the processing accuracy of the steel clamp. Simultaneously, the extrusion frames 602 abut against the elastic pusher 800 for position limiting. After stamping is completed, the elastic pusher 800 can assist in pushing out the processed steel clamp through the extrusion frame 602 during operation. The guide rod 604 of the elastic telescopic member 603 slides within the guide cylinder 605, and the spring member provides elastic force, making the movement of the extrusion frame 602 more stable.

[0032] Reference Figure 8 and Figure 1 In the low-energy-consumption integral cold-insulation pipe support steel clamp processing die recorded in the embodiment of the present application, a plurality of through holes are opened on the outside of the transmission roller 700, and paraffin columns 701 are embedded in the through holes.

[0033] The low-energy-consumption integral cold-insulation pipe support steel clamp processing die is constructed by opening multiple through holes on the outside of a transmission roller 700 and embedding a paraffin column 701 therein. During the stamping process, the steel billet contacts the transmission roller 700. As the transmission roller 700 rotates, the paraffin column 701 gradually melts due to heat. The released paraffin can act as a lubricant, reducing the friction between the steel billet and the die. On the one hand, this is beneficial to the movement of the steel billet in the die, and on the other hand, it can reduce the risk of scratches on the surface of the steel clamp and improve the surface quality of the steel clamp.

[0034] Reference Figure 9 and Figure 1The elastic pushing part 800 in the low-energy integral cold-insulation pipe support steel clamp processing mold recorded in the embodiment of the present application includes a limiting cylinder 801, and the limiting cylinder 801 is elastically and slidably connected to an extrusion column 802 through a spring part. Two connecting ropes 803 are fixed to the outside of one end of the extrusion column 802, and the other end of the connecting rope 803 is fixed to a blocking column rod 804, wherein one end of the blocking column rod 804 is arranged in a spherical structure.

[0035] The low-energy-consumption integral cold-insulation pipe support steel clamp processing die uses an elastic pushing piece 800. When the stamping is completed, the spring piece in the limiting cylinder 801 pushes the extrusion column 802 to move outward, which can more conveniently push the processed steel clamp to remove it from the mold, facilitating subsequent collection and sorting. The extrusion column 802 drives the blocking column rod 804 to move through the connecting rope 803. One end of the blocking column rod 804 is a spherical structure, which can intercept and limit the extrusion frame 602, so that the frame selection component 600 can flexibly adjust the discharge spacing according to the installation requirements of the variable diameter convex ring 302, thereby ensuring the reliability of the use of steel billets with different half-hoop diameters.

[0036] Working Principle: The operator selects the appropriate reducing ring 302 according to the design size of the steel clamp, securely connects it to the extrusion protrusion 301 with the connector 400, inserts the T-shaped plug 401 into the extrusion protrusion 301 to limit the position, tightens the cap screw 402, and the L-shaped clamping column 403 is plugged into and fixed to the selected reducing ring 302. The reducing ring 302 removed from the stamping part 300 is connected and fixed to the stamping recess 500 via bolts. After the disassembled reducing convex ring 302 is connected and fixed to the stamping recess 500 by the bolt, the elastic pusher 800 installed in the reducing convex ring 302 is squeezed with the elastic pusher 800 installed in the stamping recess 500, and the inner blocking column 804 of the elastic pusher 800 installed in the stamping recess 500 is retracted into the groove of the stamping recess 500, and is separated from the interception limit of the extrusion frame 602. The extrusion frame 602 moves upward under the elastic extension and reset of the elastic telescopic member 603, and squeezes the sliding adaptive chute distance adjustment frame 601 to relatively retract, shortening the discharge distance between the two chute distance adjustment frames 601 to make it fit the billet; The press drives the upper die base 100 to move downward. The upper die base 100 has a U-shaped structure. The guide cylinders 901 at both ends thereof slide precisely along the guide columns 902 fixed to the two ends of the lower die base 200. During this process, the compression cylinder 904 inside the buffer spring 903 starts the automatic lubrication mechanism. The one-way air inlet end of the compression cylinder 904 extracts lubricating oil from the oil box 907 through the oil extraction pipe 905, and the one-way exhaust end accurately sprays the lubricating oil to the working part of the mold through the oil injection pipe 906 and the oil injection copper pipe 908. As the upper die base 100 continues to press downward, the reducing convex ring 302 of the stamping part 300 contacts and stamps the steel billet placed on the stamping recess 500 and limited by the frame selection component 600. The steel billet contacts the transmission roller 700. The paraffin column 701 embedded in the external through hole of the transmission roller 700 is heated and melted. The released paraffin lubricates the steel billet, reducing the friction between the steel billet and the mold. After the stamping is completed, the upper die base 100 rises, and the spring of the elastic pusher 800 pushes the extrusion column 802, driving the blocking column rod 804 to push out the steel clamp.

[0037] Obviously, those skilled in the art may make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if such changes and modifications fall within the scope of the claims and their equivalents, the present invention is intended to include such changes and modifications.

[0038] The above is only a preferred specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any technician familiar with this technical field, within the technical scope disclosed by the present invention, who makes equivalent replacements or changes based on the technical solutions and inventive concepts of the present invention, should be covered by the scope of protection of the present invention.

Claims

1. A low-energy-consumption integral cold-insulation pipe support steel clamp processing die, characterized in that: The present invention comprises an upper die base (100), wherein a stamping part (300) is plugged and installed in the middle of the upper die base (100), wherein the stamping part (300) comprises an extrusion convex head (301) with a semicircular structure, wherein a plurality of diameter-reducing convex rings (302) of different diameters are sleeved on the outside of the extrusion convex head (301), and a connecting part (400) is plugged and connected between the diameter-reducing convex ring (302) and the extrusion convex head (301); The present invention comprises a lower die base (200), a stamping recess (500) is fixedly connected to one side of the lower die base (200), a frame selection component (600) for limiting the position of the steel billet is arranged on the outside of the stamping recess (500), and the impact corners of the stamping recess (500) and the reducing convex ring (302) are chamfered and limited by bolt connection, and the outside thereof are symmetrically structured with two notches, and the notches are rotatably connected with a transmission roller (700), and the middle of the stamping recess (500) and the reducing convex ring (302) are provided with a through hole, and an elastic pusher (800) is fixed in the through hole.

2. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 1 is characterized by: The upper die base (100) is arranged in a U-shaped structure, and a buffer assembly (900) is fixedly connected between the upper die base (100) and the lower die base (200) arranged in the U-shaped structure.

3. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 2 is characterized by: The buffer assembly (900) includes a guide cylinder (901) fixedly connected to both ends of the upper die base (100), a guide column (902) slidably connected inside the guide cylinder (901), the guide column (902) fixedly connected to both ends of the lower die base (200), and a buffer spring (903) is provided between the guide column (902) and the guide cylinder (901).

4. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 3 is characterized by: The buffer spring (903) is internally sleeved with a compression cylinder (904) arranged in an I-shaped arrangement. The one-way air inlet end of the compression cylinder (904) is fixedly connected to an oil extraction pipe (905), and the one-way exhaust end thereof is fixedly connected to an oil injection pipe (906). Both the oil injection pipe (906) and the oil extraction pipe (905) pass through the guide cylinder (901) and are respectively connected to an oil box (907) and an oil injection copper pipe (908). Both the oil box (907) and the oil injection copper pipe (908) are fixedly connected to the outside of the upper die base (100).

5. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 1 is characterized in that: The connecting member (400) comprises a plug post (401) in a T-shaped structure and inserted and limited in the middle of the extrusion convex head (301); one end of the plug post (401) is threadedly connected to a pressure cap screw (402), and the other two ends are slidably connected to a clamping post (403) arranged in an L-shaped structure; the clamping post (403) and the plug post (401) are connected and limited by a limiting bolt, and the clamping post (403) is plugged and matched with the reducing convex ring (302).

6. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 1 is characterized by: The frame selection component (600) includes a slidable slot adjustment frame (601) with a symmetrical structure and limited at both ends of the stamping recess (500), and two extrusion frames (602) are slidably connected between the two slidable slot adjustment frames (601). An elastic telescopic part (603) is fixed between the extrusion frame (602) and the lower mold base (200), and the extrusion frame (602) is abutted against the elastic pusher (800) to limit the position.

7. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 6 is characterized by: The elastic telescopic member (603) comprises two guide rods (604) fixed to one side of the extrusion frame (602), the guide rods (604) are externally slidably connected to a guide cylinder (605), a spring member is provided between the guide cylinder (605) and the guide rods (604), and the guide cylinder (605) is fixed to the interior of the lower die base (200).

8. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 1 is characterized by: The transmission roller (700) is provided with a plurality of through holes on its exterior, and paraffin columns (701) are embedded in the through holes.

9. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 1 is characterized by: The elastic pusher (800) comprises a limiting cylinder (801), wherein an extrusion column (802) is elastically and slidably connected to the inside of the limiting cylinder (801) via a spring member, two connecting ropes (803) are fixedly connected to the outside of one end of the extrusion column (802), and a blocking rod (804) is fixedly connected to the other end of the connecting rope (803).

10. The low-energy-consumption integral cold-insulation pipe support steel clamp processing die according to claim 9, characterized in that: One end of the blocking rod (804) is provided with a spherical structure.

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