CN115464517B - A integrative equipment of feed processing for pipeline - Google Patents

Abstract

The invention relates to the technical field of pipelines, in particular to an integrated equipment for supplying and processing materials for pipelines, which includes a plurality of pipelines and a processing table frame. The left side of the processing table frame is provided with an accommodating groove, and the inside of the accommodating groove is provided with an automatic grinder. Component; bevel dust collection rack, the bevel dust collection rack is fixed on the lower surface of the panel of the processing table frame, and there is a dust collection component on the inside of the bevel dust collection frame; a dual-purpose base, the dual-purpose base can be slidably connected to the processing table frame. On the upper side, the two sides of the dual-purpose base that are far away from each other are provided with sliding drive components. The upper side of the dual-purpose base is provided with a number of evenly distributed lower semicircular grooves. The present invention is provided with a processing table frame, a receiving tank, a bevel dust collection rack, a dual-purpose base, a gantry frame, a guide bevel frame, a connecting plate, a grinding belt ring, a rotating wheel, a retaining ring, and a rotating shaft, so that it has Automatic feeding, automatic clamping, automatic dust collection, automatic cleaning, automatic grinding, and unloading auxiliary functions.

Description

An integrated feeding and processing equipment for pipelines

Technical field

The present invention relates to the field of pipeline technology, and in particular, to an integrated material supply and processing equipment for pipelines.

Background technique

Pipes are devices connected by pipes, pipe connectors and valves for transporting gases, liquids or fluids with solid particles. Usually, after the fluid is pressurized by blowers, compressors, pumps, boilers, etc., it flows from the high pressure to the low pressure of the pipeline. It can also be transported by the fluid's own pressure or gravity. Pipes have a wide range of uses, mainly used in water supply, drainage, heating, gas supply, long-distance transportation of oil and natural gas, agricultural irrigation, hydraulic engineering and various industrial installations. At present, most of the pipes are long when they are manufactured. Therefore, when using, the longer pipes need to be cut into shorter pipes. These cut pipes will have uneven pipe openings. Therefore, after these pipes are cut, their pipe mouths need to be polished.

In the prior art, when grinding the nozzle of a pipe, grinding equipment is usually required. When using the current grinding equipment, the pipe needs to be placed on the equipment first, and then clamped and fixed by a clamp, and then After grinding, the clamp needs to be loosened before the polished pipe can be removed. Therefore, during processing and material change, the clamp needs to be operated separately, which will result in more operating steps and slower speed. , the processing efficiency is low, and when the current equipment is polished, the polished debris easily pollutes the workshop environment. For this reason, we propose an integrated feeding and processing equipment for pipelines to solve the above problems.

Contents of the invention

The purpose of the present invention is to solve the problem that in the prior art, when grinding the nozzle of a pipeline, grinding equipment is usually required. When the current grinding equipment is used, the pipe needs to be placed on the equipment first, and then the pipe is polished by a clamp. The pipe is clamped and fixed, and then polished. After the polishing is completed, the clamp needs to be loosened before the polished pipe can be removed. Therefore, during processing and material change, the clamp needs to be operated separately, which will make the operation steps longer. Too much will cause slow speed and low processing efficiency. Moreover, when the current equipment is polished, the polished debris easily pollutes the workshop environment. An integrated feeding and processing equipment for pipelines is proposed.

In order to achieve the above objects, the present invention adopts the following technical solutions:

Design an integrated supply and processing equipment for pipelines, including several pipelines, and also includes:

A processing table frame is provided with a receiving groove on the left side of the processing table frame, and an automatic grinding component is provided on the inside of the receiving groove;

A bevel dust collection rack, which is fixed on the lower surface of the panel of the processing table frame, and a dust collection component is provided on the inside of the bevel dust collection rack;

Dual-purpose base. The dual-purpose base can be slidably connected to the upper side of the processing table frame. Both sides of the dual-purpose base that are far away from each other are provided with sliding drive members. The upper side of the dual-purpose base is provided with a number of evenly distributed Lower semi-circular groove, the pipes are respectively arranged inside the lower semi-circular groove;

A gantry, which is fixed on the upper side of the processing table frame;

Guide bevel frame, the guide bevel frame is erected on the inside of the gantry frame, a discharge auxiliary component is provided on one side of the guide bevel frame, and an automatic clamping member is provided between the guide bevel frame and the dual-purpose base;

Several connecting plates are fixed between the gantry frame and the guide bevel frame.

Preferably, the automatic grinding component includes a grinding abrasive belt ring. Two rotating wheels are provided on the inner side of the grinding abrasive belt ring. Two retaining rings are fixed on the outer sides of the rotating wheels. The inner sides of the rotating wheels are both fixed. A rotating shaft is fixedly provided, two of the rotating shafts are distributed up and down, and fixed columns are fixed on corresponding sides of the accommodation tank. The rotating shafts all penetrate the fixed columns and are rotationally connected with them. A grinding motor is fixed on one side of the fixed column. The grinding motor needs to be connected to an external power supply and switch through wires. The grinding motor is connected to an upper rotating shaft through a bevel gear transmission. The two fixed columns are fixed between each other. A support frame is provided, and the support frame is arranged inside the polishing abrasive belt ring, and a debris cleaning member is provided on one side of the polishing abrasive belt ring.

Preferably, the debris cleaning member includes a connecting shaft. A connecting block is rotatably provided on the outside of the connecting shaft. The connecting block is fixedly connected to one side of a fixed column. The connecting shaft is connected to an upper rotating shaft. They are connected through belts and pulleys. A cleaning shaft is provided below the connecting shaft. A cylindrical brush is fixed on the outside of the cleaning shaft. The cylindrical brush is in contact with the outside of the polishing belt ring. The connecting shaft The cleaning shaft is connected to the cleaning shaft through a belt and a pulley, and a connecting seat is fixedly provided on one side of the two fixed columns. The cleaning shaft penetrates the connecting seat and is rotationally connected with it.

Preferably, the dust collection component includes a collection box, and the collection box is slidable and detachable inside the bevel dust collection rack. A stopper is fixed on one side of the bevel dust collection rack. The bevel dust collection rack is A guide bucket is fixedly provided on the inner side, and the guide bucket is provided on the opening side of the collection box.

Preferably, the sliding driving member includes a threaded rod, a driving block is provided on the outside of the threaded rod through a threaded transmission connection, the driving block is fixed on one side of the dual-purpose base, and a rotating block is provided on the outside of the threaded rod. Two support seats, the support seats are fixed on the upper side of the processing table frame, and a stepper motor is fixedly installed on one end of the threaded rod. The stepper motor needs to be connected to an external drive controller and power supply through wires. The motor is fixed on the upper side of the processing table frame.

Preferably, the auxiliary component for discharging materials includes a lower weighing plate, a hidden groove is provided on the lower side of the guide bevel frame, the lower weighing plate is slidable and detachable inside the hidden groove, and a hidden groove is provided on the upper side of the guide bevel frame. A plurality of through holes, all of which are connected to the hidden grooves. Vertical plates are slidably provided on the inside of the through holes. The lower ends of the vertical plates are fixed on the upper surface of the lower balance plate. The guide bevel is provided above the frame. There is an upper scale plate, and the upper ends of the vertical plates are fixed on the lower surface of the upper scale plate. There are two installation holes on the upper side of the upper scale plate. Electric telescopic push rods are fixedly installed on the inside of the installation holes. The electric telescopic push rod needs to be connected to an external power supply and switch through wires, and the shaft end of the electric telescopic push rod is fixed on the upper surface of the guide bevel frame.

Preferably, the automatic clamp releasing member includes an inverted U-shaped frame, which is fixed on the upper surface of the dual-purpose base. A lifting clamp seat is provided inside the inverted U-shaped frame, and the lower part of the lifting clamp seat is There are a number of evenly distributed upper circular grooves on the surface. Anti-skid pads are fixed on the inside of the upper circular grooves. The pipes are in contact with the inside of the anti-skid pads. The pipes can be disassembled between the dual-purpose base and the lifting clamp. Between them, a wedge-shaped block is provided above the inverted U-shaped frame. The wedge-shaped block is in contact with the lower surface of the guide bevel frame and can slide. A number of guide covers are fixed on the upper surface of the lifting clamp seat. The upper surface of the inverted U-shaped frame is provided with a number of sliding holes. The guide covers can slide inside the sliding holes. Lifting columns can slide on the inside of the guide covers. The upper ends of the lifting columns are fixed on the lower part of the wedge-shaped block. On the surface, A springs are fixed between the lower end of the lifting column and the inside of the guide cover. There are a number of limit holes on the outside of the guide cover. A number of limit blocks are fixed on the outside of the lifting column. The limit blocks are fixed on the outside of the lifting column. The bit blocks can slide inside the limit holes respectively.

Preferably, a number of B springs are fixed between the upper surface of the inverted U-shaped frame and the lower surface of the wedge block. The number of the B springs is smaller than that of the A springs, and the tension of the A springs is greater than that of the B springs.

Preferably, a handle is fixedly provided on one side of the outer surface of the collection box.

The beneficial effects of the integrated feeding and processing equipment for pipelines proposed by the present invention are:

(1) By setting up the processing table frame, dual-purpose base, gantry frame, guide bevel frame, connecting plate, threaded rod, driving block, support seat, stepper motor, inverted U-shaped frame, lifting clamp seat, anti-slip pad, wedge block, guide cover, lifting column, A spring, limit hole, limit block, and B spring, so that it has the functions of automatic feeding, automatic withdrawal, self-clamping, and self-unclamping, and can drive the pipeline to automatically advance or automatically retreat. , and can realize self-clamping and fixing during the automatic advancement of the pipeline, and can realize self-unclamping and disassembly during the automatic retreat of the pipeline, so that there is no need to operate the clamp separately for clamping and loosening, which can speed up the processing. This results in higher processing efficiency.

(2) By arranging the bevel dust collecting rack, connecting shaft, connecting block, cleaning shaft, cylindrical brush, connecting seat, collection box, block, guide bucket and handle, it has the functions of automatic dust collection and automatic cleaning. , the combination of automatic dust collection and automatic cleaning can achieve efficient dust collection, prevent polished debris from contaminating the workshop, and facilitate cleaning.

(3) By arranging the receiving groove, grinding belt ring, rotating wheel, retaining ring, rotating shaft, fixed column, grinding motor and support frame, it has automatic grinding function. When used with the automatic feeding function, automatic grinding can be achieved. The nozzle of the pipe can be polished simultaneously on batches of pipes, with high polishing efficiency.

(4) By arranging the lower balance plate, vertical plate, upper balance plate, and electric telescopic push rod, it has the auxiliary function of discharging materials. When discharging materials, the ends of multiple pipes that need to be polished can be placed in a roughly horizontal position. , can make one end of multiple pipes and the sanding belt ring approximately the same distance, thereby making it easier to polish one end of multiple pipes.

Description of the drawings

Figure 1 is a schematic front three-dimensional structural diagram of an integrated feeding and processing equipment for pipelines proposed by the present invention;

Figure 2 is a schematic diagram of the left side cutaway three-dimensional structure of an integrated feeding and processing equipment for pipelines proposed by the present invention;

Figure 3 is a schematic diagram of the left side cutaway and isometric structure of an integrated feeding and processing equipment for pipelines proposed by the present invention;

Figure 4 is a schematic diagram of the back three-dimensional structure of an integrated material supply and processing equipment for pipelines proposed by the present invention;

Figure 5 is a side cutaway three-dimensional structural schematic diagram of an integrated feeding and processing equipment for pipelines proposed by the present invention;

Figure 6 is a partial enlarged structural schematic diagram of area A in Figure 5 proposed in the present invention;

Fig. 7 is a schematic cross-sectional view of the frontal structure of an integrated material supply and processing equipment for pipelines proposed by the present invention;

Figure 8 is a schematic side cutaway isometric structural diagram of an integrated feeding and processing equipment for pipelines proposed by the present invention;

Figure 9 is a partial enlarged structural diagram of area B in Figure 8 proposed in the present invention.

In the picture: 1 pipe, 2 processing table frame, 3 storage tank, 4 bevel dust collection rack, 5 dual-purpose base, 6 gantry frame, 7 guide bevel frame, 8 connecting plate, 9 polishing belt ring, 10 rotating wheel , 11 retaining ring, 12 rotating shaft, 13 fixed column, 14 grinding motor, 15 support frame, 16 connecting shaft, 17 connecting block, 18 cleaning shaft, 19 cylindrical brush, 20 connecting seat, 21 collection box, 22 stopper, 23 guide bucket, 24 threaded rod, 25 drive block, 26 support base, 27 stepper motor, 28 lower scale plate, 29 vertical plate, 30 upper scale plate, 31 electric telescopic push rod, 32 inverted U-shaped frame, 33 lifting Clamp seat, 34 anti-slip pad, 35 wedge block, 36 guide cover, 37 lifting column, 38A spring, 39 limit hole, 40 limit block, 41B spring, 42 handle.

Detailed ways

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only some of the embodiments of the present invention, rather than all the embodiments.

Referring to Figures 1-9, an integrated feeding and processing equipment for pipelines includes several pipelines 1 and also includes:

The processing table frame 2 has an accommodating groove 3 on the left side of the processing table frame 2, and an automatic grinding component is provided on the inside of the accommodating groove 3. The automatic grinding component includes a grinding abrasive belt ring 9, and two transmission connections are provided on the inner side of the grinding abrasive belt ring 9. The rotating wheel 10 has two retaining rings 11 fixed on the outer side of the rotating wheel 10, and a rotating shaft 12 fixed on the inner side of the rotating wheel 10. The two rotating shafts 12 are distributed up and down, and the corresponding two sides of the accommodating groove 3 are both fixed. A fixed column 13 is fixedly provided, and the rotating shaft 12 all penetrates the fixed column 13 and is rotationally connected with it. A grinding motor 14 is fixed on one side of the fixed column 13. The grinding motor 14 needs to be connected to an external power supply and switch through wires, and the grinding motor 14 is connected to the upper part. A rotating shaft 12 is connected through a bevel gear transmission, and a support frame 15 is fixed between the two fixed columns 13. The support frame 15 is arranged inside the grinding belt ring 9, so that it has an automatic grinding function and cooperates with automatic feeding. When the function is used, the nozzle of the pipe 1 can be automatically polished, and batches of pipes 1 can be polished simultaneously, which has high polishing efficiency. Specific implementation: When one end of the pipe 1 needs to be polished, the grinding motor 14 can be turned on. When the grinding motor 14 is turned on, it will rotate, and at the same time, it can drive the rotating shaft 12 and the rotating wheel 10 to automatically rotate. When the rotating wheel 10 rotates, Then the grinding abrasive belt ring 9 itself can rotate cyclically. At this time, the stepper motor 27 can be controlled to rotate, so that the pipe 1 automatically approaches and contacts the grinding abrasive belt ring 9. At this time, automatic grinding can be realized, and the pipe 1 can be The end is polished flat to facilitate the subsequent use of the pipe 1, and when the pipe 1 is being polished, the support frame 15 can resist the sanding belt ring 9 and the pipe 1, ensuring that the sanding belt ring 9 contacts the part of the pipe 1 during polishing. No deformation will occur, thus ensuring that the end of the pipe 1 can be polished smooth;

A debris cleaning member is provided on one side of the sanding belt ring 9. The debris cleaning member includes a connecting shaft 16. A connecting block 17 is rotatably provided on the outside of the connecting shaft 16. The connecting block 17 is fixedly connected to one side of a fixed column 13. The connecting shaft 16 is connected to an upper rotating shaft 12 through a belt and a pulley. A cleaning shaft 18 is provided below the connecting shaft 16. A cylindrical brush 19 is fixed outside the cleaning shaft 18. The cylindrical brush 19 and the polishing abrasive belt The outer sides of the ring 9 are in contact, and the connecting shaft 16 and the cleaning shaft 18 are connected through a belt and a pulley. The two fixed columns 13 are fixedly provided with connecting seats 20 on one side, and the cleaning shafts 18 all penetrate the connecting seats 20 and are rotationally connected with them. ;

The bevel dust collection rack 4 is fixed on the lower surface of the panel of the processing table frame 2. The inside of the bevel dust collection rack 4 is provided with a dust collection component. The dust collection component includes a collection box 21. The collection box 21 can slide. It is disassembled on the inside of the bevel dust collecting rack 4. A stopper 22 is fixed on one side of the bevel dust collecting rack 4. A guide bucket 23 is fixed on one side of the bevel dust collecting rack 4. The guide bucket 23 is arranged on the collection side. A handle 42 is fixedly provided on the opening side of the box 21 and the outer surface side of the collection box 21, so that it has the functions of automatic dust collection and automatic cleaning. The combination of automatic dust collection and automatic cleaning can achieve the effect of efficient dust collection. It can prevent the polished debris from contaminating the workshop and facilitate cleaning. When the pipe 1 is polished, the grinding belt ring 9 will rotate cyclically, and the debris polished by the grinding belt ring 9 will automatically fall to the guide. On the bucket 23, the debris on the guide bucket 23 will automatically slide into the collection box 21, thereby realizing automatic collection. At the same time, some of the debris will adhere to the sanding belt ring 9, and during polishing, The grinding motor 14 will rotate, and when the grinding motor 14 rotates, it will drive the connecting shaft 16, the cleaning shaft 18 and the cylindrical brush 19 to automatically rotate. When the cylindrical brush 19 rotates, it can automatically attach to the grinding belt. The debris on the ring 9 is swept down, thereby preventing the debris from being thrown out when the polishing belt ring 9 rotates, thereby preventing the debris from contaminating the workshop, and at the same time greatly improving the dust collection effect and being brushed off by the cylindrical brush 19 The debris can slide into the collection box 21 through the guide bucket 23. When the collection box 21 needs to be cleaned, the collection box 21 can be pulled out by holding the handle 42 for cleaning, thereby facilitating cleaning;

The dual-purpose base 5 can be slidably connected to the upper side of the processing table frame 2. The dual-purpose base 5 is provided with sliding drive members on both sides far away from each other. The sliding drive member includes a threaded rod 24, and the outside of the threaded rod 24 passes through The threaded transmission connection is provided with a driving block 25. The driving block 25 is fixed on one side of the dual-purpose base 5. Two support seats 26 are rotatably provided on the outside of the threaded rod 24. The support seats 26 are both fixed on the processing table frame 2. side, one end of the threaded rod 24 is fixed with a stepper motor 27. The stepper motor 27 needs to be externally connected to the drive controller and power supply through wires. The stepper motor 27 is fixed on the upper side of the processing table frame 2;

The upper side of the dual-purpose base 5 is provided with a number of evenly distributed lower semicircular grooves, and the pipes 1 are respectively arranged inside the lower semicircular grooves;

The gantry 6 is fixed on the upper side of the processing table frame 2;

Guide bevel frame 7, guide bevel frame 7 is arranged on the inside of gantry frame 6, and one side of guide bevel frame 7 is provided with an auxiliary component for discharging materials. The auxiliary component for discharging materials includes a lower scale plate 28, and is provided on the lower side of guide bevel frame 7. There is a hidden groove, and the lower balance plate 28 can be slid and detached inside the hidden groove. The upper side of the guide bevel frame 7 is provided with a number of through holes. The through holes are all connected with the hidden groove. The inside of the through holes is slidably provided with a vertical plate 29. The lower ends of the vertical plates 29 are fixed on the upper surface of the lower balance plate 28. An upper balance plate 30 is provided above the guide bevel frame 7. The upper ends of the vertical plates 29 are fixed on the lower surface of the upper balance plate 30. There is an upper balance plate 30 on the upper side There are two installation holes, and the electric telescopic push rod 31 is fixedly installed on the inside of the installation hole. The electric telescopic push rod 31 needs to be connected to an external power supply and switch through wires. The shaft end of the electric telescopic push rod 31 is fixed on the guide bevel frame 7 surface, so that it has an auxiliary function for discharging materials. When discharging materials, one end of the multiple pipes 1 that needs to be polished can be in a roughly horizontal position, so that one end of the multiple pipes 1 and the polishing abrasive belt ring 9 can be approximately the same. distance, thereby facilitating polishing of one end of multiple pipes 1. When the pipes 1 are polished and removed, the electric telescopic push rod 31 can be controlled to retract. When the electric telescopic push rod 31 is retracted, the lower scale plate can be moved 28. The vertical plate 29 and the upper scale plate 30 automatically descend. At this time, the next batch of pipes 1 can be placed on the dual-purpose base 5, and one end of the pipe 1 touches the lower scale plate 28, so that multiple pipes 1 can be lowered. One end of the pipe is approximately the same distance from the sanding belt ring 9, which facilitates grinding one end of the pipes 1. After the pipes 1 are placed, the electric telescopic push rod 31 can be controlled to extend, and at this time the lower balance plate 28 , the vertical plate 29, and the upper scale plate 30 can automatically rise, and then the stepper motor 27 can be controlled to rotate for automatic feeding and grinding, thereby facilitating material change;

An automatic clamping member is provided between the guide bevel frame 7 and the dual-purpose base 5. The automatic clamping member includes an inverted U-shaped frame 32. The inverted U-shaped frame 32 is fixed on the upper surface of the dual-purpose base 5. The inverted U-shaped frame 32 There is a lifting clamp seat 33 on the inside. The lower surface of the lifting clamp seat 33 is provided with a number of evenly distributed upper circular grooves. Anti-skid pads 34 are fixed on the inside of the upper circular grooves. The pipes 1 are in contact with the inner sides of the anti-skid pads 34. The pipes 1 can be disassembled between the dual-purpose base 5 and the lifting clamp seat 33. A wedge-shaped block 35 is provided above the inverted U-shaped frame 32. The wedge-shaped block 35 is in contact with the lower surface of the guide bevel frame 7 and can slide. The lifting clamp A number of guide covers 36 are fixedly provided on the upper surface of the seat 33, and a number of sliding holes are provided on the upper surface of the inverted U-shaped frame 32. The guide covers 36 can slide inside the sliding holes, and a lifting column 37 can be slidably provided on the inside of the guide cover 36. The upper ends of the lifting columns 37 are fixed on the lower surface of the wedge block 35. A springs 38 are fixed between the lower ends of the lifting columns 37 and the inside of the guide cover 36. A number of limiting holes 39 are provided on the outside of the guide cover 36. The outside of the lifting columns 37 A number of limit blocks 40 are fixedly provided, and the limit blocks 40 can slide inside the limit holes 39 respectively. A number of B springs 41 are fixedly provided between the upper surface of the inverted U-shaped frame 32 and the lower surface of the wedge block 35. The number of B springs 41 is less than that of A springs 38, and the tension of A spring 38 is greater than that of B springs 41, so that it has the functions of automatic feeding, automatic withdrawal, self-clamping, and self-unclamping, and can drive the pipeline 1 to automatically advance or automatically retreat. In addition, during the process of automatic advancement of pipe 1, it can realize self-clamping and fixation, and during the process of automatic retreat of pipe 1, it can realize self-unclamping and disassembly, so that there is no need to operate the clamp separately for clamping and loosening, which can speed up the processing. , and thus has higher processing efficiency. When multiple pipes 1 need to be polished, and the pipes 1 are all placed on the dual-purpose base 5, the stepper motor 27 can be controlled to rotate, and the stepper motor 27 can drive the thread when rotating. The rod 24 rotates together. When the threaded rod 24 rotates, the driving block 25 can automatically move. When the driving block 25 moves, the dual-purpose base 5 can be driven to automatically move, so that the dual-purpose base 5 can automatically approach the sanding belt ring 9. When the base 5 is used to approach the sanding belt ring 9, the wedge block 35 will slide under the guide bevel frame 7, and the wedge block 35 will automatically descend. When the wedge block 35 descends, it will automatically drive the lifting column 37 to descend. When the column 37 descends, it will automatically press down the A spring 38, and the A spring 38 will automatically press down the guide cover 36 and the lifting clamp seat 33, so that the pipe 1 can be automatically clamped between the lifting clamp seat 33 and the dual-purpose base 5. , the self-clamping and fixing can be completed. After the polishing is completed, the stepper motor 27 can be controlled to reverse. When the stepper motor 27 reverses, in the same way, the dual-purpose base 5 and the pipe 1 can automatically move away from the polishing belt. Ring 9, and when the dual-purpose base 5 is away from the sanding belt ring 9, the wedge block 35 will automatically rise. When the wedge block 35 rises, the pressure on the A spring 38 will be removed, and the A spring 38 will automatically rebound. The limit block 40 will automatically approach and contact the top of the limit hole 39. At this time, the tension of the B spring 41 can automatically lift the wedge block 35, the guide cover 36, the lifting column 37 and the lifting clamp base 33. The lifting clamp base 33 is automatically raised and moved away from the dual-purpose base 5. At this time, the pipe 1 can be taken out, self-release can be realized, and rapid disassembly and material replacement can be performed. At the same time, the dual-purpose base 5 and the lifting clamp base 33 can be connected. There is a gap between them, so that the pipe 1 can be placed on the base 5 next time for easy use;

Several connecting plates 8 are fixed between the gantry frame 6 and the guide bevel frame 7 .

It should be noted:

The polishing belt ring 9, polishing motor 14, stepper motor 27, and electric telescopic push rod 31 proposed in this application are all existing technologies, and their specific usage methods, principles, and functions will not be described again in this article.

The polishing abrasive belt ring 9 is an abrasive belt, and the abrasive belt belongs to a coated abrasive tool, which is called a flexible abrasive tool. Compared with solid abrasive tools, it is more flexible and safer during polishing, has higher precision and has the advantages of low grinding cost.

The above are only preferred specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person familiar with the technical field can, within the technical scope disclosed in the present invention, implement the technical solutions of the present invention. Equivalent substitutions or changes of the inventive concept thereof shall be included in the protection scope of the present invention.

Claims (7)

1. An integrated feeding and processing equipment for pipelines, including several pipelines (1), characterized in that it also includes: Processing table frame (2), the left side of the processing table frame (2) is provided with a receiving groove (3), and the inside of the receiving groove (3) is provided with an automatic grinding component; Bevel edge dust collection rack (4), the bevel edge dust collection rack (4) is fixed on the lower surface of the panel of the processing table frame (2), and the inside of the bevel edge dust collection rack (4) is provided with a dust collection component; Dual-purpose base (5). The dual-purpose base (5) can be slidably connected to the upper side of the processing table frame (2). Both sides of the dual-purpose base (5) that are far away from each other are provided with sliding drive members. A number of evenly distributed lower semicircular grooves are provided on the upper side of the dual-purpose base (5), and the pipes (1) are respectively provided on the inside of the lower semicircular grooves; Gantry frame (6), the gantry frame (6) is fixed on the upper side of the processing table frame (2); Guide bevel frame (7), the guide bevel frame (7) is located inside the gantry frame (6), and a discharging auxiliary component is provided on one side of the guide bevel frame (7). The guide bevel frame (7) is There is an automatic clamping component between (7) and the dual-purpose base (5); Several connecting plates (8), the connecting plates (8) are fixed between the gantry frame (6) and the guide bevel frame (7), the automatic clamping release member includes an inverted U-shaped frame (32), the The inverted U-shaped frame (32) is fixed on the upper surface of the dual-purpose base (5). A lifting clamp seat (33) is provided on the inside of the inverted U-shaped frame (32). The lower surface of the lifting clamp seat (33) is provided with There are several evenly distributed upper circular grooves, and anti-skid pads (34) are fixedly arranged on the inside of the upper circular grooves. The pipes (1) are in contact with the inside of the anti-skid pads (34). The pipes (1) are all in contact with each other. It can be disassembled between the dual-purpose base (5) and the lifting clamp seat (33). A wedge-shaped block (35) is provided above the inverted U-shaped frame (32). The wedge-shaped block (35) is connected with the guide bevel frame (32). 7) are in contact with each other and can slide, the upper surface of the lifting clamp seat (33) is fixedly provided with a number of guide covers (36), and the upper surface of the inverted U-shaped frame (32) is provided with a number of sliding holes, so Each of the guide covers (36) can slide inside the sliding hole. A lifting column (37) is slidably provided on the inside of the guide cover (36). The upper end of the lifting column (37) is fixed on the wedge-shaped block (35). On the lower surface of the lifting column (37), an A spring (38) is fixed between the lower end of the lifting column (37) and the inside of the guide cover (36), and a number of limiting holes (39) are provided on the outside of the guide cover (36). A number of limit blocks (40) are fixedly provided on the outside of the lifting column (37), and the limit blocks (40) can slide inside the limit holes (39). The inverted U-shaped frame (32) A number of B springs (41) are fixed between the upper surface of the wedge block (35) and the lower surface of the wedge block (35). The number of the B springs (41) is smaller than that of the A springs (38). The tension of the A springs (38) is greater than B spring (41). 2. An integrated material supply and processing equipment for pipelines according to claim 1, characterized in that the automatic grinding component includes a grinding abrasive belt ring (9), and the inner side of the grinding abrasive belt ring (9) is driven Two rotating wheels (10) are connected together. Two retaining rings (11) are fixed on the outside of the rotating wheel (10), and a rotating shaft (12) is fixed on the inside of the rotating wheel (10). Each of the rotating shafts (12) is distributed up and down, and fixed columns (13) are fixed on both sides of the receiving tank (3). The rotating shafts (12) all penetrate the fixed columns (13). And is rotationally connected to it. A grinding motor (14) is fixedly installed on one side of the fixed column (13). The grinding motor (14) needs to be connected to an external power supply and switch through wires. The grinding motor (14) is connected to the upper part. A rotating shaft (12) is connected through a bevel gear transmission, and a support frame (15) is fixed between the two fixed columns (13). The support frame (15) is arranged on the sanding belt ring (9) Inside, a debris cleaning member is provided on one side of the polishing belt ring (9). 3. An integrated material supply and processing equipment for pipelines according to claim 2, characterized in that the debris cleaning member includes a connecting shaft (16), and a rotatable rotatable outer side of the connecting shaft (16) is provided. The connecting block (17) is fixedly connected to one side of a fixed column (13). The connecting shaft (16) and an upper rotating shaft (12) are connected by a belt and a pulley. Transmission connection, a cleaning shaft (18) is provided below the connecting shaft (16), a cylindrical brush (19) is fixed outside the cleaning shaft (18), and the cylindrical brush (19) is connected with the sanding belt ring (9) The outer sides are in contact. The connecting shaft (16) and the cleaning shaft (18) are connected through a belt and a pulley. A connecting seat (20) is fixed on one side of the two fixed columns (13). , the cleaning shaft (18) all penetrates the connecting seat (20) and is rotationally connected with it. 4. An integrated equipment for supplying and processing materials for pipelines according to claim 1, characterized in that the dust collection component includes a collection box (21), and the collection box (21) is slidably detachable on the hypotenuse Inside the dust collection rack (4), a stopper (22) is fixedly provided on one side of the bevel dust collection rack (4), and a guide bucket (22) is fixed on one side of the bevel dust collection rack (4). 23), the guide bucket (23) is arranged on the opening side of the collection box (21). 5. An integrated material supply and processing equipment for pipelines according to claim 1, characterized in that the sliding driving member includes a threaded rod (24), and the outside of the threaded rod (24) is connected through a thread transmission. A driving block (25) is provided. The driving block (25) is fixed on one side of the dual-purpose base (5). Two support seats (26) are rotatably provided on the outside of the threaded rod (24). The support bases (26) are fixed on the upper side of the processing table frame (2), and a stepper motor (27) is fixed at one end of the threaded rod (24). The stepper motor (27) needs to be driven and controlled by an external wire. The stepper motor (27) is fixed on the upper side of the processing table frame (2). 6. A kind of integrated material supply and processing equipment for pipelines according to claim 1, characterized in that the material discharging auxiliary component includes a lower balance plate (28), the lower side of the guide bevel frame (7) A hidden slot is provided, and the lower balance plate (28) can be slid and detached inside the hidden slot. A number of through holes are provided on the upper side of the guide bevel frame (7), and the through holes are all connected with the hidden slot. The inside of the through hole is slidably provided with a vertical plate (29). The lower end of the vertical plate (29) is fixed on the upper surface of the lower balance plate (28). An upper balance plate is provided above the guide bevel frame (7). (30), the upper ends of the vertical plates (29) are fixed on the lower surface of the upper balance plate (30). There are two installation holes on the upper side of the upper balance plate (30), and the inner sides of the installation holes are fixedly installed. There is an electric telescopic push rod (31). The electric telescopic push rod (31) needs to be connected to an external power supply and a switch through wires. The shaft end of the electric telescopic push rod (31) is fixed on the guide bevel frame (7). upper surface. 7. An integrated material supply and processing equipment for pipelines according to claim 4, characterized in that a handle (42) is fixedly provided on one side of the outer surface of the collection box (21).