Novel integrated processing equipment for processing industrial socket

Abstract

According to the novel integrated machining equipment for machining the industrial socket, a longitudinal adjusting unit and a horizontal adjusting unit in an adjustable turning mechanism can adjust the height and the horizontal position of a turning unit, and after the height of the turning unit is adjusted, the turning unit can adapt to workpieces of different sizes; therefore, the precision and the stability in the machining process are ensured. Due to the moving function of the horizontal adjusting unit, the turning unit can be finely adjusted in the horizontal direction (towards the direction of a machined workpiece), adjustment can be conducted according to the requirements of different turning distances, and the accuracy of the turning process is ensured. And the machining turntable of the equipment can rotate, so that a plurality of machining stations can enter a machining area in sequence, and batch efficient production is realized. And through the integrated design, the equipment is easy and convenient to operate, and the machining efficiency and the product quality are greatly improved. The whole structure is compact, the occupied area is small, and the device is suitable for various industrial production environments.

Description

Technical Field

[0001] This utility model relates to the field of machine tool technology, specifically to a novel integrated processing equipment for processing industrial sockets. Background Technology

[0002] In existing technologies, the production and processing of industrial sockets requires multiple steps, such as cutting, drilling, and grooving. Each step typically requires separate equipment and operators, which not only increases production costs but also extends the production cycle. In particular, during milling and turning, it is impossible to flexibly adjust to the needs of industrial sockets of different sizes, making it difficult to improve production efficiency and product quality. Furthermore, operating multiple devices increases the labor intensity and safety risks for operators, hindering the stable operation of the production line. Therefore, there is an urgent need for a new integrated processing equipment that can integrate multiple processing functions to improve production efficiency and product quality and solve the above problems. Summary of the Invention

[0003] In view of this, the present invention provides a novel integrated processing equipment for processing industrial sockets.

[0004] To achieve the above objectives, this utility model provides the following technical solution:

[0005] A novel integrated processing equipment for processing industrial sockets includes a processing base and a spindle box. The spindle box is mounted on the processing base, and a processing turntable is mounted on the spindle box. A processing station is mounted on the processing turntable. An adjustable turning mechanism is mounted on the processing base. The adjustable turning mechanism includes a turning base plate, a longitudinal adjustment unit, a horizontal adjustment unit, and a turning unit. The horizontal adjustment unit is movably mounted on the turning base plate, the longitudinal adjustment unit is mounted on the horizontal adjustment unit, and the turning unit is vertically adjustable on the longitudinal adjustment unit. A workpiece to be processed is placed on the processing station, and the turning unit turns the workpiece.

[0006] Preferably, the horizontal adjustment unit includes a horizontal slide and a horizontal power source. The longitudinal adjustment unit is disposed at the top of the horizontal slide. A horizontal guide rail is disposed on the turning base plate. A horizontal groove is formed on the horizontal slide corresponding to the horizontal guide rail. The horizontal guide rail extends into the horizontal groove and is slidably connected to the horizontal slide. The horizontal power source is disposed on one side of the turning base plate. The horizontal power source has a transmission end. The transmission end abuts against the horizontal slide and drives the horizontal slide to move on the horizontal guide rail.

[0007] Preferably, the longitudinal adjustment unit includes a longitudinal positioning frame and limiting plates disposed on both sides of the longitudinal positioning frame. The longitudinal positioning frame is disposed at the top of the horizontal adjustment unit. A positioning groove is formed between the limiting plates and the longitudinal positioning frame. One end of the turning unit extends movably into the positioning groove and connects to the longitudinal positioning frame. A longitudinal adjustment groove is provided on the longitudinal positioning frame. A longitudinal positioning hole corresponding to the longitudinal adjustment groove is provided on the turning unit. A longitudinal positioning element is disposed between the longitudinal positioning hole and the longitudinal positioning groove. The longitudinal positioning element fixes the height of the turning unit within the positioning groove.

[0008] Preferably, the turning unit includes a turning bracket, a tool mounting block, a turning power source, and a power transmission shaft. The turning bracket has a power mounting part and a tool mounting part. The tool mounting block and the turning power source are respectively mounted on the tool mounting part and the power mounting part. The turning power source has a turning power output shaft. One end of the power transmission shaft is connected to the turning power output shaft, and the other end of the power transmission shaft passes through the tool mounting part and is connected to the tool mounting block. The turning power source drives the tool mounting block to rotate on the tool mounting part through the power transmission shaft. A cutting tool is mounted on the tool mounting part.

[0009] Preferably, the machining base is further provided with a feeding and shearing mechanism, a first drilling mechanism, a chamfering mechanism, a tapping and drilling mechanism, a first grooving mechanism, a second tapping mechanism, and a second grooving mechanism arranged sequentially in the clockwise rotation direction of the machining turntable. The adjustable turning mechanism is located on the machining base between the first drilling mechanism and the tapping and drilling mechanism. The feeding and shearing mechanism holds the raw material to be processed and shears the raw material to be processed to form a workpiece to be processed. The workpiece to be processed has a first processing end and a second processing end, and the workpiece to be processed is conveyed to the first drilling mechanism. The first drilling mechanism drills a hole at the first processing end of the workpiece to form a first insertion hole. The chamfering mechanism chamfers the first insertion hole of the workpiece to be processed. The tapping and drilling mechanism taps the first insertion hole of the workpiece to be processed and drills a hole at the second processing end of the workpiece to form a second insertion hole. The first grooving mechanism performs a first grooving on the first processing end of the workpiece to be processed. The second tapping mechanism taps the second insertion hole of the workpiece to be processed. The second grooving mechanism performs a second grooving on the workpiece to be processed.

[0010] Preferably, the feeding and shearing mechanism includes a feeding bracket and a cutting unit. The feeding bracket is disposed on one side of the processing base, and a feeding groove is formed on the feeding bracket. The raw material to be processed is placed in the feeding groove and passes through the feeding groove. The cutting unit includes a cutting device and a cutting slide. The cutting slide is movably disposed on the processing base, and the cutting device is disposed on the cutting slide. A slide cylinder is disposed on one side of the cutting slide. The slide cylinder drives the cutting slide to move on the processing base toward the raw material to be processed, and the cutting device cuts the raw material to be processed.

[0011] Preferably, the first drilling mechanism includes a first drilling cylinder, a first drilling motor, and a first drill bit. A first drilling bracket is provided on the processing base, and a drilling slide is provided on the first drilling bracket. The first drilling cylinder is mounted on the first drilling bracket, and the first drilling cylinder drives the drilling slide to slide on the first drilling bracket. The drilling motor and the first drill bit are both mounted on the drilling slide, and the drilling motor drives the first drill bit to rotate.

[0012] Preferably, the first grooving mechanism and the second grooving mechanism have the same structure. Both the first grooving mechanism and the second grooving mechanism are composed of a grooving bracket, a grooving slide, a grooving cylinder, a grooving motor, and a cutting blade. The grooving bracket is fixed on the processing base, the grooving slide is movably mounted on the grooving bracket, the grooving cylinder is mounted on the grooving bracket and drives the grooving slide to move on the grooving bracket, the grooving motor is mounted on the grooving slide, and the cutting blade is mounted on the grooving motor.

[0013] The beneficial effects of this invention are as follows: By incorporating an adjustable turning mechanism on an integrated processing equipment, which can be adjusted according to different needs and workpiece dimensions, precise processing of industrial sockets of various specifications can be achieved. The longitudinal and horizontal adjustment units in the adjustable turning mechanism can adjust the height and horizontal position of the turning unit. When the height of the turning unit is adjusted, it can adapt to workpieces of different sizes, thus ensuring accuracy and stability during processing. The movement function of the horizontal adjustment unit allows the turning unit to be finely adjusted in the horizontal direction (towards the workpiece), enabling adjustments based on different turning distance requirements and ensuring the accuracy of the turning process. Furthermore, the rotating processing turntable allows multiple processing stations to sequentially enter the processing area, achieving efficient batch production. Through integrated design, the equipment is easy to operate, significantly improving processing efficiency and product quality. The overall structure is compact, occupies a small area, and is suitable for various industrial production environments. Attached Figure Description

[0014] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0015] Appendix Figure 1 This is a schematic diagram of the structure of this utility model;

[0016] Appendix Figure 2 This is a schematic diagram of the processing turntable of this utility model;

[0017] Appendix Figure 3 This is a schematic diagram of the adjustable turning structure of this utility model;

[0018] Appendix Figure 4 This is a cross-sectional view of the adjustable turning structure of this utility model;

[0019] Appendix Figure 5 This is a schematic diagram of the adjustable turning angle structure of this utility model;

[0020] Appendix Figure 6 This is a schematic diagram of the feeding and shearing mechanism;

[0021] Appendix Figure 7 This is a schematic diagram of the feeding and shearing mechanism from another angle;

[0022] Appendix Figure 8 This is a schematic diagram of the first grooving mechanism;

[0023] Appendix Figure 9 This is a schematic diagram of the workpiece. Detailed Implementation

[0024] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0025] The present invention will now be further described with reference to the accompanying drawings.

[0026] This utility model provides the following technical solution:

[0027] As attached Figure 1-9As shown, this utility model discloses a novel integrated processing equipment for processing industrial sockets, including a processing base 1 and a spindle box 2. The spindle box 2 is mounted on the processing base 1, and a processing turntable 3 is mounted on the spindle box 2. A processing station 4 is mounted on the processing turntable 3, and an adjustable turning mechanism 5 is mounted on the processing base 1. (Refer to the attached diagram.) Figure 3-5 As shown, the adjustable turning structure includes a turning base plate 6, a longitudinal adjustment unit 7, a horizontal adjustment unit 8, and a turning unit 9. The horizontal adjustment unit 8 is movably mounted on the turning base plate 6, the longitudinal adjustment unit 7 is mounted on the horizontal adjustment unit 8, and the turning unit 9 is height-adjustable mounted on the longitudinal adjustment unit 7. A workpiece 10 to be processed is placed on the machining station 4, and the turning unit 9 performs turning on the workpiece 10. Specifically, in this design, by setting an adjustable turning mechanism 5 on the integrated machining equipment that can be adjusted according to different needs and different workpiece processing dimensions, precise processing of various specifications of industrial sockets can be achieved. The longitudinal adjustment unit 7 and the horizontal adjustment unit 8 in the adjustable turning mechanism 5 can adjust the height and horizontal position of the turning unit 9. When the height of the turning unit 9 is adjusted, the turning unit 9 can adapt to workpieces of different sizes, thereby ensuring accuracy and stability during the processing. The horizontal adjustment unit 8 allows the turning unit 9 to be finely adjusted in the horizontal direction (towards the workpiece), enabling adjustments based on different turning distance requirements and ensuring precision in the turning process. Furthermore, the rotating machining turntable 3 allows multiple machining stations 4 to sequentially enter the machining area, achieving efficient batch production. Through its integrated design, the equipment is easy to operate, significantly improving processing efficiency and product quality. Its compact structure and small footprint make it suitable for various industrial production environments.

[0028] Further, see attached document. Figure 3-4As shown, the horizontal adjustment unit 8 includes a horizontal slide 11 and a horizontal power source 12. The longitudinal adjustment unit 7 is located at the top of the horizontal slide 11. A horizontal guide rail 13 is provided on the turning base plate 6. A horizontal groove 14 is formed on the horizontal slide 11 corresponding to the horizontal guide rail 13. The horizontal guide rail 13 extends into the horizontal groove 14 and is slidably connected to the horizontal slide 11. The horizontal power source 12 is located on one side of the turning base plate 6. The horizontal power source 12 has a transmission end 15. The transmission end 15 abuts against the horizontal slide 11 and drives the horizontal slide 11 to move on the horizontal guide rail 13. Specifically, in this embodiment, the horizontal power source 12 is a cylinder. The cylinder drives the transmission end 15 with compressed air to achieve smooth movement of the horizontal slide 11 on the horizontal guide rail 13. The design of the horizontal groove 14 ensures the stability and accuracy of the horizontal slide 11 during movement, avoiding positioning deviations caused by friction or vibration. The longitudinal adjustment unit 7 is located at the top of the horizontal slide 11, which enables the turning unit 9 to be precisely adjusted in the vertical direction, further improving the flexibility and adaptability of the machining process.

[0029] Further, see attached document. Figure 4-5 As shown, the longitudinal adjustment unit 7 includes a longitudinal positioning frame 16 and limiting plates 17 disposed on both sides of the longitudinal positioning frame 16. The longitudinal positioning frame 16 is disposed at the top of the horizontal adjustment unit 8. A positioning groove 18 is formed between the limiting plates 17 and the longitudinal positioning frame 16. One end of the turning unit 9 extends movably into the positioning groove 18 and connects to the longitudinal positioning frame 16. A longitudinal adjustment groove 19 is provided on the longitudinal positioning frame 16, and a longitudinal positioning hole (not shown) corresponding to the longitudinal adjustment groove 19 is provided on the turning unit 9. A longitudinal positioning component (not shown) is disposed between the longitudinal positioning hole and the longitudinal positioning groove 18. The longitudinal positioning component fixes the height of the turning unit 9 within the positioning groove 18. Specifically, in this embodiment, the longitudinal positioning component is made of high-strength stainless steel to ensure that it does not deform during long-term use, thereby maintaining the height stability of the turning unit 9. The limiting plates 17 restrict the lateral movement of the turning unit 9, ensuring its precise adjustment in the vertical direction. The design of the longitudinal adjustment groove 19 and the longitudinal positioning hole makes the height adjustment of the turning unit 9 simple and precise, which can be quickly completed with simple tools. Furthermore, the longitudinal positioning element is a screw, which not only facilitates tightening and loosening but also maintains good fastening performance after repeated use. Overall, this design of the longitudinal adjustment unit 7 not only improves the ease of operation of the equipment but also significantly enhances machining accuracy and stability, providing strong support for the precise machining of complex workpieces.

[0030] Further, see attached document. Figure 3-5As shown, the turning unit 9 includes a turning bracket 22, a tool mounting block 23, a turning power source 24, and a power transmission shaft 25. The turning bracket 22 has a power mounting part 26 and a tool mounting part 27. The tool mounting block 23 and the turning power source 24 are respectively mounted on the tool mounting part 27 and the power mounting part 26. The turning power source 24 has a turning power output shaft (not shown). One end of the power transmission shaft 25 is connected to the turning power output shaft, and the other end of the power transmission shaft 25 passes through the tool mounting part 27 and is connected to the tool mounting block 23. The turning power source 24 drives the tool mounting block 23 to rotate on the tool mounting part 27 through the power transmission shaft 25. The tool mounting part 27 is equipped with cutting inserts 28. Specifically, in this embodiment, the turning bracket 22 is made of high-strength alloy material to ensure stability and rigidity during high-speed operation. The tool mounting block 23 is designed with a quick-change structure, which facilitates rapid replacement of cutting inserts under different processing requirements and improves production efficiency. The turning power source 24 uses a high-efficiency motor with high torque output characteristics, capable of handling the machining of materials of various hardnesses. The power transmission shaft 25 is supported by high-precision bearings, ensuring smooth transmission and low-noise operation. A tool head slot 29 is provided on the tool head mounting block 23, into which a tool head block 30 is inserted. The tool head block 30 and the tool head slot 29 are connected by a plug-in connection, achieving quick and secure fixation and ensuring that the tool head will not loosen during high-speed turning. At least two insert positioning ends 31 protrude from the end of the tool head block 30 away from the tool head mounting block 23, forming an insert positioning groove 32 between the insert positioning ends 31. The insert is placed in the insert positioning groove 32 and fixed to the insert positioning end 31 by screws or other fasteners. This structure ensures that the insert 28 remains stable during high-speed rotation, effectively improving machining accuracy and surface finish. The design of the insert positioning groove 32 makes insert installation more convenient and reduces errors caused by improper installation. The blade 28 is arranged in a parallelogram structure and has two cutting ends 33.

[0031] Furthermore, the machining base 1 is also equipped with a feeding shearing mechanism 34, a first drilling mechanism 35, a chamfering mechanism (not shown), a tapping and drilling mechanism (not shown), a first grooving mechanism 38, a second tapping mechanism 39, and a second grooving mechanism 40 arranged sequentially in the clockwise rotation direction of the machining turntable 3. The adjustable turning mechanism is located on the machining base 1 between the first drilling mechanism 35 and the tapping and drilling mechanism. The feeding shearing mechanism 34 holds the raw material to be processed (not shown), which is elongated. The feeding shearing mechanism 34 shears the raw material to be processed to form a workpiece 10 to be processed. The workpiece 10 to be processed has a first processing end 41 and a second processing end 40. 2. The workpiece 10 to be processed is conveyed to the first drilling mechanism 35. The first drilling mechanism 35 drills a hole in the first processing end 41 of the workpiece 10 to form a first insertion hole 43. The chamfering mechanism chamfers the first insertion hole 43 of the workpiece 10. The tapping and drilling mechanism taps the first insertion hole 43 of the workpiece 10 and drills a hole in the second processing end 42 of the workpiece 10 to form a second insertion hole (not shown in the figure). The first grooving mechanism 38 performs the first grooving on the first processing end 41 of the workpiece 10. The second tapping mechanism 39 taps the second insertion hole of the workpiece 10. The second grooving mechanism 40 performs the second grooving on the workpiece 10. Specifically, in this embodiment, the design of the processing seat 1 ensures the coordinated operation between the various mechanisms, making the entire processing process efficient and precise. The setting of the feeding shearing mechanism 34 ensures that the dimensions of the workpiece 10 to be processed are consistent after shearing. The first drilling mechanism 35 is equipped with a CNC system, which can accurately control the position and depth of the drilling to ensure the quality of the first insertion hole 43. The chamfering mechanism, through automated adjustment, can uniformly chamfer the first insertion hole 43 of the workpiece 10, improving the convenience of subsequent assembly. The tapping and drilling mechanism integrates tapping and drilling functions, reducing workpiece transfer time and improving processing efficiency. Both the first grooving mechanism 38 and the second grooving mechanism 40 adopt a modular design, facilitating quick replacement and adjustment according to the processing requirements of different workpieces. The second tapping mechanism 39 uses a high-strength tap to ensure the thread quality of the second insertion hole.

[0032] Further, see attached document. Figure 6-7As shown, the feeding and shearing mechanism 34 includes a feeding bracket 45 and a cutting unit 46. The feeding bracket 45 is disposed on one side of the processing base 1, and a feeding groove 47 is formed on the feeding bracket 45. The raw material to be processed is placed in the feeding groove 47 and passes through the feeding groove 47. The cutting unit 46 includes a cutting device 48 and a cutting slide 49. The cutting slide 49 is movably disposed on the processing base 1, and the cutting device 48 is disposed on the cutting slide 49. A slide cylinder 50 is disposed on one side of the cutting slide 49. The slide cylinder 50 drives the cutting slide 49 to move on the processing base 1 toward the raw material to be processed, and the cutting device 48 cuts the raw material to be processed. Specifically, in this embodiment, the feeding bracket 45 is made of high-strength steel to ensure stability and durability during long-term use. The cutting device 48 is a cutting machine in the prior art, equipped with a high-precision cutting blade, which can achieve precise cutting of raw materials at high speed, reducing the generation of burrs and waste. The movement trajectory of the cutting slide 49 is controlled by a precision guide rail system to ensure the smoothness and consistency of the cutting process. After cutting, the workpiece 10 to be processed can be transported to the processing turntable 3 by a robot or other transfer tool.

[0033] Further, see attached document. Figure 6-7 As shown, the first drilling mechanism 35 includes a first drilling cylinder 51, a first drilling motor 52, and a first drill bit 53. A first drilling bracket 54 is mounted on the processing base 1, and a drilling slide 55 is mounted on the first drilling bracket 54. The first drilling cylinder 51 is mounted on the first drilling bracket 54, and the first drilling cylinder 51 drives the drilling slide 55 to slide on the first drilling bracket 54. The drilling motor and the first drill bit 53 are both mounted on the drilling slide 55, and the drilling motor drives the first drill bit 53 to rotate. Specifically, in this embodiment, the drilling slide 55 of the first drilling mechanism 35 is guided by a precise guiding device, which can be a combination of a guide rail and a guide groove, ensuring its stability during sliding, thereby improving the drilling accuracy.

[0034] Reference Appendix Figure 8As shown, the first grooving mechanism 38 and the second grooving mechanism 40 have the same structure. Both the first grooving mechanism 38 and the second grooving mechanism 40 consist of a grooving bracket 56, a grooving slide 57, a grooving cylinder 58, a grooving motor 59, and a cutting blade 60. The grooving bracket 56 is fixed on the processing base 1. The grooving slide 57 is movably mounted on the grooving bracket 56. The grooving cylinder 58 is mounted on the grooving bracket 56 and drives the grooving slide 57 to move on the grooving bracket 56. The grooving motor 59 is mounted on the grooving slide 57, and the cutting blade 60 is mounted on the grooving motor 59. Specifically, in this embodiment, the grooving motor 59 drives the cutting blade 60 to rotate at high speed through its output shaft, achieving precise grooving of the workpiece 10 to be processed. The movement trajectory of the grooving slide 57 is precisely controlled by the grooving cylinder 58, ensuring the accuracy and consistency of the grooving position. In addition, the design of the grooving bracket 56 fully considers structural stability and ease of operation, facilitating quick installation and adjustment by operators. During operation, the operator can adjust the stroke of the grooving cylinder 58 and the speed of the grooving motor 59 through the control system to meet different processing requirements. The cutting blade 60 is made of a highly wear-resistant material to ensure good cutting performance even after long-term use. The entire grooving mechanism is designed to improve processing efficiency and grooving quality, reduce manual intervention, and enhance automation.

[0035] In this design, the chamfering mechanism, the tapping and drilling mechanism, and the second tapping mechanism 39 are all existing chamfering and tapping and drilling fixtures, so they will not be described in detail here.

[0036] Each machining station 4 on the machining turntable 3 is equipped with a fixture 61 for clamping the workpiece 10 to be processed. The fixture is a side-shifting fixture in the prior art, so it will not be described in detail here.

[0037] The above description of the disclosed embodiments enables those skilled in the art to make or use the present invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention is not to be limited to the embodiments shown herein, but is to be accorded the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A novel integrated processing equipment for processing industrial sockets, comprising a processing base and a spindle box, wherein the spindle box is mounted on the processing base, a processing turntable is mounted on the spindle box, and a processing station is mounted on the processing turntable, characterized in that: An adjustable turning mechanism is provided on the machining base. The adjustable turning mechanism includes a turning base plate, a longitudinal adjustment unit, a horizontal adjustment unit, and a turning unit. The horizontal adjustment unit is movably mounted on the turning base plate. The longitudinal adjustment unit is mounted on the horizontal adjustment unit. The turning unit is vertically mounted on the longitudinal adjustment unit. A workpiece to be processed is placed on the machining station. The turning unit turns the workpiece to be processed.

2. The new integrated processing plant for processing industry sockets as claimed in claim 1, wherein: The horizontal adjustment unit includes a horizontal slide and a horizontal power source. The longitudinal adjustment unit is located at the top of the horizontal slide. A horizontal guide rail is provided on the turning base plate. A horizontal groove is opened on the horizontal slide corresponding to the horizontal guide rail. The horizontal guide rail extends into the horizontal groove and is slidably connected to the horizontal slide. The horizontal power source is located on one side of the turning base plate. The horizontal power source has a transmission end. The transmission end abuts against the horizontal slide and drives the horizontal slide to move on the horizontal guide rail.

3. The new integrated processing plant for processing industry sockets as claimed in claim 1, wherein: The longitudinal adjustment unit includes a longitudinal positioning frame and limiting plates disposed on both sides of the longitudinal positioning frame. The longitudinal positioning frame is disposed at the top of the horizontal adjustment unit. A positioning groove is formed between the limiting plates and the longitudinal positioning frame. One end of the turning unit extends movably into the positioning groove and connects to the longitudinal positioning frame. A longitudinal adjustment groove is provided on the longitudinal positioning frame. A longitudinal positioning hole corresponding to the longitudinal adjustment groove is provided on the turning unit. A longitudinal positioning component is disposed between the longitudinal positioning hole and the longitudinal positioning groove. The longitudinal positioning component fixes the height of the turning unit within the positioning groove.

4. The new integrated processing plant for processing industry sockets as claimed in claim 3, wherein: The turning unit includes a turning bracket, a tool mounting block, a turning power source, and a power transmission shaft. The turning bracket has a power mounting part and a tool mounting part. The tool mounting block and the turning power source are respectively mounted on the tool mounting part and the power mounting part. The turning power source has a turning power output shaft. One end of the power transmission shaft is connected to the turning power output shaft, and the other end of the power transmission shaft passes through the tool mounting part and is connected to the tool mounting block. The turning power source drives the tool mounting block to rotate on the tool mounting part through the power transmission shaft. A cutting tool is mounted on the tool mounting part.

5. The new integrated processing plant for processing industry sockets as claimed in claim 1, wherein: The machining base is also equipped with a feeding and shearing mechanism, a first drilling mechanism, a chamfering mechanism, a tapping and drilling mechanism, a first grooving mechanism, a second tapping mechanism, and a second grooving mechanism arranged sequentially in the clockwise rotation direction of the machining turntable. The adjustable turning mechanism is located on the machining base between the first drilling mechanism and the tapping and drilling mechanism. The feeding and shearing mechanism holds the raw material to be processed and shears the raw material to be processed to form a workpiece to be processed. The workpiece to be processed has a first processing end and a second processing end, and the workpiece to be processed is transported to the first drilling mechanism. The first drilling mechanism drills a hole at the first processing end of the workpiece to form a first insertion hole. The chamfering mechanism chamfers the first insertion hole of the workpiece to be processed. The tapping and drilling mechanism taps the first insertion hole of the workpiece to be processed and drills a hole at the second processing end of the workpiece to form a second insertion hole. The first grooving mechanism performs an initial grooving on the first processing end of the workpiece to be processed. The second tapping mechanism taps the second insertion hole of the workpiece to be processed. The second grooving mechanism performs a secondary grooving on the workpiece to be processed.

6. The new integrated processing plant for processing industry sockets as claimed in claim 5, wherein: The feeding and shearing mechanism includes a feeding bracket and a cutting unit. The feeding bracket is located on one side of the processing base and has a feeding groove. The raw material to be processed is placed in the feeding groove and passes through it. The cutting unit includes a cutting device and a cutting slide. The cutting slide is movably mounted on the processing base. The cutting device is mounted on the cutting slide. A slide cylinder is located on one side of the cutting slide. The slide cylinder drives the cutting slide to move on the processing base toward the raw material to be processed. The cutting device cuts the raw material to be processed.

7. The new integrated processing plant for processing industry sockets as claimed in claim 5 wherein: The first drilling mechanism includes a first drilling cylinder, a first drilling motor, and a first drill bit. A first drilling bracket is provided on the processing base, and a drilling slide is provided on the first drilling bracket. The first drilling cylinder is provided on the first drilling bracket, and the first drilling cylinder drives the drilling slide to slide on the first drilling bracket. The first drilling motor and the first drill bit are both provided on the drilling slide, and the drilling motor drives the first drill bit to rotate.

8. The novel integrated processing equipment for processing industrial sockets according to claim 5, characterized in that: The first grooving mechanism and the second grooving mechanism have the same structure. Both the first grooving mechanism and the second grooving mechanism are composed of a grooving bracket, a grooving slide, a grooving cylinder, a grooving motor, and a cutting blade. The grooving bracket is fixed on the processing base. The grooving slide is movably mounted on the grooving bracket. The grooving cylinder is mounted on the grooving bracket and drives the grooving slide to move on the grooving bracket. The grooving motor is mounted on the grooving slide, and the cutting blade is mounted on the grooving motor.

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