Cooling equipment for pipeline forming machining

Abstract

The utility model discloses cooling equipment for pipeline forming processing, which is characterized in that an isolation processing sleeve is fixed on the inner side of an integration processing frame, a plurality of in-out electric push rods are clamped at the side end of the isolation processing sleeve at equal intervals, an alignment fitting plate is fixed at one ends of the plurality of in-out electric push rods, and a plurality of annular air inlet holes are connected at the side end of the isolation processing sleeve at equal intervals in a penetrating manner; a plurality of injection fixing holes are formed in the bottom end of the inner side of the isolation treatment sleeve at equal intervals, an injection fixing pipe is connected to the bottom end of the isolation treatment sleeve in a penetrating mode, an injection fan is clamped to the inner side of the injection fixing pipe, and an isolation supporting box is connected to the bottom end of the injection fixing pipe in a penetrating mode. The multi-position simultaneous air inlet cooling is achieved, the contact area is increased, the cooling efficiency is improved, the situation of pipeline single-point deformation caused by single-position air inlet cooling is avoided, the cooled product quality is improved, continuous movement of the pipeline is matched, and the cooling effect and efficiency are guaranteed.

Description

Technical Field

[0001] This utility model relates to the field of pipe processing and forming technology, specifically to a cooling device for pipe forming and processing. Background Technology

[0002] Plastic pipes are a general term for pipes made of plastic. They are lightweight, hygienic and safe, have low water flow resistance, save energy and metal, improve the living environment, have a long service life, and are safe and convenient. Plastic pipes have many advantages over traditional metal pipes and concrete pipes in many fields, and therefore have been recommended for use in many regions. Currently, during the production of plastic pipes, cooling components are used to cool and shape them.

[0003] However, when cooling pipes, the cooling components cool the pipes from a single location, which leads to significant deformation of the pipes due to continuous cooling during pipe processing. Furthermore, during pipe processing, the pipes come into contact with the cooling equipment, and some parts cannot be effectively cooled, affecting the speed of pipe forming. Utility Model Content

[0004] This utility model provides a cooling device for pipe forming and processing, which can effectively solve the problems mentioned in the background art. When cooling pipes, the cooling component cools the pipes at a single location, resulting in large deformation of the pipes due to continuous cooling. Furthermore, during pipe processing, the pipes are in contact with the cooling device, and some parts cannot be effectively cooled, thus affecting the speed of pipe forming.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a cooling device for pipe forming and processing, comprising an integrated processing frame, wherein a processing component is provided inside the integrated processing frame, and the processing component includes an isolation processing sleeve;

[0006] An isolation treatment sleeve is fixed inside the integrated processing frame. Several inlet and outlet electric push rods are equidistantly snapped onto the side end of the isolation treatment sleeve. One end of each of the inlet and outlet electric push rods is fixed with an alignment and bonding plate. Several annular air inlets are equidistantly connected through the side end of the isolation treatment sleeve. Several injection fixing holes are equidistantly opened at the bottom of the inner side of the isolation treatment sleeve.

[0007] The bottom end of the isolation treatment sleeve is connected to an injection fixing pipe, an injection fan is snapped into the inside of the injection fixing pipe, an isolation support box is connected to the bottom end of the injection fixing pipe, and several outward support pipes are equidistantly connected to the top end of the isolation treatment sleeve. An outward absorption box is connected to the top end of the multiple outward support pipes, and an adsorption net cage is sleeved on the side end of the isolation support box and the outward absorption box.

[0008] The integrated processing frame has several alignment electric push rods installed at equal intervals at one end. One end of each alignment electric push rod is fixed to the alignment processing frame, and an alignment wheel is rotatably sleeved on the side end of the alignment processing frame.

[0009] According to the above technical solution, the alignment and bonding plate is placed inside the isolation treatment sleeve, and the input ends of the inlet and outlet electric push rod, the injection fan and the alignment electric push rod are all electrically connected to the external power supply output end.

[0010] According to the above technical solution, the two ends of the isolation support box are attached to the side ends of the integrated processing frame, and the bottom end of the outflow absorption box is engaged with the top end of the isolation processing strip.

[0011] According to the above technical solution, the alignment wheel and the alignment processing frame are placed inside the integration processing frame, and the longitudinal section of the alignment bonding plate is arc-shaped.

[0012] According to the above technical solution, a cooling assembly is provided inside the integrated processing rack, and the cooling assembly includes a storage box;

[0013] A storage box is fixedly connected to the top of the integrated processing frame. Several atomizing nozzles are equidistantly embedded in the side of the integrated processing frame. One end of each atomizing nozzle is connected to a pressurizing tube frame via an adapter. An arc-shaped reflux hole is connected through the bottom of the integrated processing frame. A recycling box is snapped into the bottom of the integrated processing frame. A reflux pipe is connected through one end of the recycling box. Pressurizing pumps are installed at both ends of the storage box, corresponding to the positions of the pressurizing tube frame and the reflux pipe, via motor mounts. A separation mesh box is sleeved inside the recycling box.

[0014] According to the above technical solution, one end of the return pipe and the pressurizing pipe rack are both installed through the side of the storage box, and the input end of the pressurizing pump is electrically connected to the output end of the external power supply.

[0015] Compared with the prior art, the advantages of this utility model are: the structure of this utility model is scientific and reasonable, and it is safe and convenient to use.

[0016] 1. Equipped with a processing component, the inlet and outlet electric actuators drive the alignment and bonding plate to support the pipeline. This, in conjunction with the alignment electric actuators, drives the alignment processing frame and alignment wheels to guide and support the pipeline, thereby continuously changing the cooling position of the pipeline to prevent any cooling omissions. An injection fan, injection fixing pipe, and exhaust support pipe drive the air circulation along the pipeline side. Combined with an isolation support box, exhaust absorption box, and adsorption cage, multiple sections of air are adsorbed, preventing impurities and moisture from entering the cooling position and reducing the environmental impact of cooling moisture and odors. Annular air inlets and injection fixing holes disperse the air, enabling simultaneous air intake cooling at multiple positions, increasing the contact area, improving cooling efficiency, and preventing single-point deformation of the pipeline caused by single-position air intake cooling, thus improving the quality of the cooled product. Combined with continuous pipeline movement, this ensures the effectiveness and efficiency of the cooling process.

[0017] 2. A cooling assembly is installed, with a pressurized pump and pressurized pipe rack drawing cooling water from the storage tank. The cooling water is sprayed onto the side of the pipe through the pressurized pipe rack and atomizing nozzles, providing atomized spray cooling to the pipe. This atomized spray cooling increases the cooling area, and the simultaneous movement of the pipe and water flow changes the cooling position, ensuring uniform cooling. The cooling water is returned through an arc-shaped return hole, recovery tank, pressurized pump, and return pipe. Simultaneously, a separation screen box intercepts impurities and water, thus cleaning the pipe surface while cooling it, ensuring the cleanliness of the pipe surface and rapid hardening of the pipe exterior. This ensures the hardness of the pipe exterior during subsequent cooling, improving molding quality and cooling speed. Attached Figure Description

[0018] The accompanying drawings are provided to further understand the present invention and form part of the specification. They are used together with the embodiments of the present invention to explain the present invention and do not constitute a limitation thereof.

[0019] In the attached diagram:

[0020] Figure 1 This is a three-dimensional structural schematic diagram of the present invention;

[0021] Figure 2 This is a schematic diagram of the processing component of this utility model;

[0022] Figure 3 This is a schematic diagram of the installation structure of the adsorption cage of this utility model;

[0023] Figure 4 This is a schematic diagram of the cooling component of this utility model;

[0024] Numbered in the diagram: 1. Integrated processing rack;

[0025] 2. Processing components; 201. Isolation processing sleeve; 202. Inlet / outlet electric actuator; 203. Alignment bonding plate; 204. Annular air inlet; 205. Injection fixing hole; 206. Injection fixing pipe; 207. Injection fan; 208. Isolation support box; 209. Outlet support pipe; 210. Outlet absorption box; 211. Adsorption cage; 212. Alignment electric actuator; 213. Alignment processing frame; 214. Alignment wheel;

[0026] 3. Cooling assembly; 301. Storage tank; 302. Atomizing nozzle; 303. Pressurization tube rack; 304. Pressurization pump; 305. Arc-shaped reflux hole; 306. Recovery tank; 307. Reflux pipe; 308. Separation mesh box. Detailed Implementation

[0027] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0028] Example: Figure 1-4 As shown, this utility model provides a technical solution: a cooling device for pipe forming and processing, including an integrated processing frame 1. The integrated processing frame 1 is provided with a processing component 2 inside. The processing component 2 includes an isolation processing sleeve 201, an inlet and outlet electric push rod 202, an alignment and bonding plate 203, an annular air inlet 204, an injection fixing hole 205, an injection fixing pipe 206, an injection fan 207, an isolation support box 208, an outlet support pipe 209, an outlet absorption box 210, an adsorption cage 211, an alignment electric push rod 212, an alignment processing frame 213, and an alignment wheel 214.

[0029] An isolation treatment sleeve 201 is fixed inside the integrated treatment frame 1. Several inlet and outlet electric push rods 202 are equidistantly clamped to the side end of the isolation treatment sleeve 201. One end of each inlet and outlet electric push rod 202 is fixed with an alignment and bonding plate 203. The longitudinal section of the alignment and bonding plate 203 is arc-shaped, which allows for stable operation when clamping the pipe. The alignment and bonding plate 203 is placed inside the isolation treatment sleeve 201 to achieve stable clamping and alignment. Several annular air inlets 204 are equidistantly connected to the side end of the isolation treatment sleeve 201. Several injection fixing holes 205 are equidistantly opened at the bottom of the inner side of the isolation treatment sleeve 201.

[0030] An injection fixing pipe 206 is connected through the bottom of the isolation treatment sleeve 201. An injection fan 207 is snapped into the inside of the injection fixing pipe 206. An isolation support box 208 is connected through the bottom of the injection fixing pipe 206. Several outward support pipes 209 are equidistantly connected through the top of the isolation treatment sleeve 201. An outward absorption box 210 is connected through the top of the multiple outward support pipes 209. The two ends of the isolation support box 208 are attached to the side of the integrated treatment frame 1. The bottom of the outward absorption box 210 is snapped into the top of the isolation treatment sleeve 201, so that the operation can be stable when the gas enters and exits, ensuring the cooling circulation effect. An adsorption net cage 211 is sleeved on the side of the isolation support box 208 and the outward absorption box 210.

[0031] A number of alignment electric push rods 212 are equidistantly installed at one end of the integrated processing frame 1. An alignment processing frame 213 is fixed to one end of the alignment electric push rod 212. An alignment wheel 214 is rotatably sleeved on the side end of the alignment processing frame 213. The alignment wheel 214 and the alignment processing frame 213 are placed inside the integrated processing frame 1 to achieve steady alignment processing and ensure the stability of clamping alignment.

[0032] To ensure stable operation of the equipment, the input ends of the inlet / outlet electric actuator 202, the injection fan 207, and the alignment electric actuator 212 are all electrically connected to the output end of an external power supply.

[0033] The integrated processing rack 1 is equipped with a cooling assembly 3 inside. The cooling assembly 3 includes a storage box 301, an atomizing nozzle 302, a pressurizing tube rack 303, a pressurizing pump 304, an arc-shaped reflux hole 305, a recovery box 306, a reflux pipe 307, and a separation mesh box 308.

[0034] A storage tank 301 is fixedly connected to the top of the integrated processing frame 1. Several atomizing nozzles 302 are equidistantly embedded on the side of the integrated processing frame 1. One end of each atomizing nozzle 302 is connected to a pressurizing pipe frame 303 via an adapter. An arc-shaped return hole 305 is connected through the bottom of the integrated processing frame 1. A recovery tank 306 is snapped onto the bottom of the integrated processing frame 1. A return pipe 307 is connected through one end of the recovery tank 306. One end of the return pipe 307 and the pressurizing pipe frame 303 are both installed through the side of the storage tank 301 to achieve stable water inflow and outflow treatment. Pressurizing pumps 304 are installed at both ends of the storage tank 301 corresponding to the positions of the pressurizing pipe frame 303 and the return pipe 307 via motor mounts. A separation mesh box 308 is sleeved inside the recovery tank 306. For stable operation of the equipment, the input end of the pressurizing pump 304 is electrically connected to the output end of an external power supply.

[0035] The working principle and usage process of this utility model are as follows: During the cooling and forming of the pipe during production, the pipe enters the inner side of the integrated processing frame 1 and the isolation processing sleeve 201 along the production machine. When the pipe enters the inner side of the integrated processing frame 1, the pressurizing pump 304 and the pressurizing pipe frame 303 draw cooling water from the storage tank 301. The cooling water is sprayed out along the pressurizing pipe frame 303 and the atomizing nozzle 302 to the side end of the pipe inside the integrated processing frame 1, performing atomized spray cooling treatment on the pipe. The cooled water drips down the surface of the pipe onto the integrated processing frame 1. The water flows into the inner side of the arc-shaped return hole 305 and eventually into the inner side of the recovery tank 306. The return water is intercepted and isolated by the separation mesh box 308, and finally the cooling water is returned. The water in the recovery tank 306 is drawn by the pressurization pump 304 and the return pipe 307 and injected into the inner side of the storage tank 301 to achieve steady return. The atomized spray is used to rinse and cool and clean the pipe surface, and remove the high temperature and impurities from the pipe surface, thereby achieving rapid hardening treatment of the pipe exterior, improving the molding efficiency and the integrity of the pipe shape during cooling.

[0036] After initial cooling and forming, the pipe enters the inner side of the isolation treatment sleeve 201 along the integration treatment frame 1. The inlet and outlet electric push rod 202 drives the alignment and bonding plate 203 to adhere to the side end of the pipe. The alignment electric push rod 212 drives the alignment treatment frame 213 and the alignment wheel 214 to adhere to the side end of the pipe, thus restricting the side end of the pipe. During the movement of the pipe, the alignment and bonding plate 203 is used to limit and fix the pipe, ensuring effective integration and support of the pipe.

[0037] External air is drawn in by the injection fan 207 and the injection fixed pipe 206. The external air enters the inside of the injection fixed pipe 206 through the isolation support box 208 and the adsorption cage 211. The activated carbon in the adsorption cage 211 intercepts impurities and moisture in the air to ensure that the incoming air is dry. The air enters the inside of the annular air inlet 204 through the injection fixed pipe 206. The air is dispersed through multiple injection fixed pipes 206 and blown to the side of the pipe, carrying away the heat from the pipe surface. The hot air enters the inside of the exhaust support pipe 209 through the isolation treatment sleeve 201. The hot air enters the adsorption cage 211 in the exhaust absorption box 210 through the exhaust support pipe 209. The activated carbon adsorbs odors and moisture in the air to reduce the occurrence of pollutant discharge and environmental impact.

[0038] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A cooling device for pipe forming and processing, comprising an integrated processing rack (1), characterized in that: The integrated processing rack (1) is provided with a processing component (2) inside, and the processing component (2) includes an isolation processing sleeve (201). An isolation treatment sleeve (201) is fixed inside the integrated processing frame (1). Several inlet and outlet electric push rods (202) are equidistantly snapped onto the side end of the isolation treatment sleeve (201). One end of each of the inlet and outlet electric push rods (202) is fixed with an alignment and bonding plate (203). Several annular air inlets (204) are equidistantly connected to the side end of the isolation treatment sleeve (201). Several injection fixing holes (205) are equidistantly opened at the bottom of the inner side of the isolation treatment sleeve (201). The bottom end of the isolation treatment sleeve (201) is connected to an injection fixing pipe (206), an injection fan (207) is snapped into the inside of the injection fixing pipe (206), an isolation support box (208) is connected to the bottom end of the injection fixing pipe (206), a number of outflow support pipes (209) are equidistantly connected to the top end of the isolation treatment sleeve (201), an outflow absorption box (210) is connected to the top end of the multiple outflow support pipes (209), and an adsorption net cage (211) is sleeved on the side end of the isolation support box (208) and the outflow absorption box (210). The integrated processing frame (1) has several alignment electric push rods (212) installed at equal intervals at one end. The alignment electric push rod (212) has an alignment processing frame (213) fixed at one end. The alignment processing frame (213) has an alignment wheel (214) rotatably sleeved on the side end.

2. The cooling equipment for pipe forming and processing according to claim 1, characterized in that, The alignment and bonding plate (203) is placed inside the isolation treatment sleeve (201), and the input ends of the inlet and outlet electric push rod (202), the injection fan (207) and the alignment electric push rod (212) are all electrically connected to the output end of the external power supply.

3. The cooling equipment for pipe forming and processing according to claim 1, characterized in that, The two ends of the isolation support box (208) are attached to the side of the integrated processing frame (1), and the bottom end of the external absorption box (210) is engaged with the top end of the isolation processing sleeve (201).

4. The cooling equipment for pipe forming and processing according to claim 1, characterized in that, The alignment wheel (214) and alignment processing frame (213) are placed inside the integration processing frame (1), and the longitudinal section of the alignment bonding plate (203) is arc-shaped.

5. The cooling equipment for pipe forming and processing according to claim 1, characterized in that, The integrated processing rack (1) is provided with a cooling assembly (3) inside, and the cooling assembly (3) includes a storage box (301). The integrated processing rack (1) is fixedly connected to a storage box (301) at its top. Several atomizing nozzles (302) are equidistantly embedded on the side of the integrated processing rack (1). Multiple atomizing nozzles (302) are connected to a pressurizing tube rack (303) at one end via an adapter. An arc-shaped return hole (305) is connected through the bottom of the integrated processing rack (1). A recycling box (306) is snapped onto the bottom of the integrated processing rack (1). A return pipe (307) is connected through one end of the recycling box (306). Pressurizing pumps (304) are installed at both ends of the storage box (301) at the positions corresponding to the pressurizing tube rack (303) and the return pipe (307) via motor mounts. A separation mesh box (308) is sleeved inside the recycling box (306).

6. The cooling equipment for pipe forming and processing according to claim 5, characterized in that, The return pipe (307) and the pressurizing pipe rack (303) are both installed through the storage box (301) at one end, and the input end of the pressurizing pump (304) is electrically connected to the output end of the external power supply.

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