A stainless steel gear production device

Abstract

The present invention discloses a stainless steel gear production device, which relates to the technical field of gear production. It includes a cutting component for placing a workpiece blank and performing cutting on the workpiece blank. The cutting component automatically places the workpiece blank on the work station and drives the workpiece blank to rotate to improve the production efficiency of the workpiece blank. A processing component for cleaning the gear is arranged on the side of the cutting component. The processing component takes the workpiece blank from the cutting component and places it on the grooving component, and the processing component cleans the residual chips on the gear. A grooving component is arranged on the side of the processing component. The grooving component processes spline grooves on the gear, and the grooving component recovers the cutting chips. The present invention improves the production efficiency of the gear, and at the same time improves the stability of the gear during the production process and ensures the accuracy of the gear.

Description

Technical Field

[0001] The present invention relates to the technical field of gear production, and particularly to a production device for stainless steel gears. Background Art

[0002] Stainless steel gears are mechanical transmission components made of stainless steel materials, with excellent corrosion resistance, wear resistance, and strong oxidation resistance. Due to their good physical and chemical properties, stainless steel gears are widely used in industries that require long-term exposure to harsh environments, such as marine, chemical, food processing, medical equipment, and high-precision mechanical transmission systems. Their corrosion-resistant characteristics make stainless steel gears perform excellently in humid or highly corrosive environments, capable of extending the service life of equipment and improving operating efficiency.

[0003] During the tooth cutting process of stainless steel gears, improving precision is crucial because high-precision tooth profiles directly affect the transmission efficiency, stability, and service life of the gears. Stainless steel materials have a relatively high hardness, and cutting heat and stress are easily generated during cutting. If the cutting precision is insufficient, defects may occur on the gear surface, such as irregular tooth profiles and rough tooth surfaces, which will affect the smoothness of gear meshing and transmission performance. Therefore, improving cutting precision can ensure that the shape and size of the gear teeth meet the design requirements, reduce friction and noise during gear meshing, reduce energy loss, extend the service life of the gears, and improve the reliability and efficiency of the mechanical system. In addition, precise cutting can also reduce the workload of subsequent processing and lower production costs.

[0004] The Chinese invention patent with the publication number CN114260519B discloses gear processing equipment, which solves the problem of chip deposition during gear processing. First, this device clamps gears of different specifications and improves the stability of the gears. However, this device has low efficiency and cannot quickly place the gears in the working position. At the same time, it cannot position the gears, cannot ensure the concentricity between the gears and the tooling, affects the precision of tooth cutting, and cannot clean the residual cutting chips on the gear surface. Summary of the Invention

[0005] In view of the above technical problems, the present invention discloses a stainless steel gear production device, including a cutting component. The cutting component includes a first mounting frame, on which a second mounting frame, an adjusting block two and a placing shaft are provided. Multiple groups of workpiece blanks are placed on the second mounting frame. A hob is rotatably provided on the adjusting block two. A workpiece blank is placed on the placing shaft. A pressing plate one, a processing component and a grooving component are slidably provided on the first mounting frame. A first liquid outlet pipe and a positioning column are provided on the pressing plate one. The positioning column presses the workpiece blank on the placing shaft. The cutting component processes the workpiece blank into a gear. The processing component includes an adjusting frame slidably mounted on the first mounting frame. A transfer frame is slidably provided on the adjusting frame. A transfer mechanism and an adjusting shaft are provided on the transfer frame. A second liquid outlet pipe and a wiping column are provided on the adjusting shaft. The grooving component includes a third mounting frame and a placing seat mounted on the first mounting frame. A third liquid outlet pipe is provided on the third mounting frame.

[0006] Further, a placing plate is rotatably provided on the second mounting frame. Multiple groups of first limiting columns are provided on the placing plate. Multiple groups of supporting columns are slidably provided inside the first limiting columns.

[0007] Further, an adjusting block one is slidably provided on the first mounting frame. An adjusting plate is slidably provided on the adjusting block one. A first clamping ring is slidably provided on the adjusting plate.

[0008] Further, multiple groups of supporting frames are slidably provided on the placing shaft. A spring is provided between the supporting frame and the placing shaft. A supporting wheel is provided on the supporting frame. The supporting wheel is in contact with the workpiece blank.

[0009] Further, multiple groups of first support plates are slidably provided on the positioning column. A top shaft is provided on the placing shaft.

[0010] Further, the transfer mechanism includes a positioning plate slidably mounted on the transfer frame. A supporting shaft is rotatably provided on the positioning plate. Multiple groups of second support plates are slidably provided on the supporting shaft.

[0011] Further, a second clamping ring is slidably provided on the transfer frame. Multiple groups of adjusting wheels are rotatably provided on the second clamping ring.

[0012] Further, multiple groups of the third liquid outlet pipes are rotatably provided on the third mounting frame. A recycling bucket is provided at the lower end of the third mounting frame.

[0013] Further, multiple groups of connecting rods are rotatably provided on the placing seat. A pressing plate two is provided on the connecting rod.

[0014] The beneficial effects of the present invention compared with the prior art are as follows: The cutting component provided in the present invention can place multiple groups of workpiece blanks, and automatically transfer the positions of the workpiece blanks, place the workpiece blanks on the workstations, and the cutting component accurately positions the workpiece blanks to ensure that the working positions of the workpiece blanks are aligned with the hob, improving the cutting efficiency and accuracy of the workpiece blanks. The processing component provided in the present invention automatically transfers the position of the gear and drives the gear to rotate to clean the residual processing debris on the gear. The processing component places the gear on the grooving component. The grooving component provided in the present invention is used to machine spline grooves on the gear to process the gear into a spline gear. The cleaning by the processing component improves the processing accuracy of the spline gear, and the grooving component recovers the debris generated during processing. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 FIG. is a schematic diagram of the overall structure of the present invention.

[0016] Figure 2 FIG. is a top view of the overall structure of the present invention.

[0017] Figure 3 is Figure 2 a sectional view taken along the A-A direction in FIG.

[0018] Figure 4 FIG. is a schematic diagram of the structure of the cutting component of the present invention.

[0019] Figure 5 FIG. is a partial structure schematic diagram of the cutting component of the present invention.

[0020] Figure 6 FIG. is a front view of the partial structure of the cutting component of the present invention.

[0021] Figure 7 is Figure 6 a sectional view taken along the B-B direction in FIG.

[0022] Figure 8 is Figure 6 a sectional view of the structure at A in FIG.

[0023] Figure 9 FIG. is a sectional view of the partial structure of the cutting component of the present invention.

[0024] Figure 10 FIG. is a schematic diagram of the structure of the processing component of the present invention.

[0025] Figure 11 FIG. is a right view of the partial structure of the processing component of the present invention.

[0026] Figure 12 FIG. is a top view of the partial structure of the processing component of the present invention.

[0027] Figure 13 FIG. is a front view of the grooving component of the present invention.

[0028] Figure 14 For Figure 13 Structural sectional view in the C-C direction in the figure.

[0029] Reference numerals: 1 - cutting assembly; 2 - processing assembly; 3 - grooving assembly; 101 - first mounting bracket; 102 - hob; 103 - second mounting bracket; 104 - workpiece blank; 105 - adjusting plate; 106 - first adjusting block; 107 - first clamping ring; 108 - second adjusting block; 109 - first pressing plate; 110 - first liquid outlet pipe; 111 - placing plate; 112 - first limiting post; 113 - support post; 114 - positioning post; 115 - placing shaft; 117 - support frame; 118 - support wheel; 119 - spring; 120 - first support plate; 121 - top shaft; 201 - adjusting frame; 202 - positioning plate; 203 - transfer frame; 204 - second clamping ring; 205 - gear; 206 - second liquid outlet pipe; 207 - wiping column; 208 - adjusting wheel; 209 - second support plate; 210 - adjusting shaft; 301 - third mounting bracket; 302 - recovery barrel; 303 - hydraulic cylinder; 304 - broaching tool; 305 - third liquid outlet pipe; 306 - spline gear; 307 - placing seat; 308 - connecting rod; 309 - second pressing plate. Detailed implementation manner

[0030] A stainless steel gear production device as shown in the reference figure includes a cutting assembly 1 for placing a workpiece blank 104. The cutting assembly 1 automatically places the workpiece blank 104 on the processing station, and the cutting assembly 1 cuts the workpiece blank 104. During the cutting of the workpiece blank 104, the cutting assembly 1 clamps and drives the workpiece blank 104 to rotate, improving the processing efficiency and accuracy of the workpiece blank 104. The cutting assembly 1 processes the workpiece blank 104 into a gear 205. A processing assembly 2 for driving the gear 205 to move is arranged on the side of the cutting assembly 1. The processing assembly 2 drives the gear 205 to rotate and cleans the debris generated when cutting teeth on the gear 205. The processing assembly 2 places the gear 205 on a grooving assembly 3. The grooving assembly 3 drives the gear 205 to move and processes the gear 205. The grooving assembly 3 processes a spline groove on the gear 205 to process the gear 205 into a spline gear 306, and at the same time recovers the cut debris. The present invention improves the production efficiency of the spline gear 306 and improves the processing accuracy of the spline gear 306 by stabilizing the spline gear 306.

[0031] The cutting assembly 1 includes a first mounting frame 101. A second mounting frame 103 is arranged on the side of the first mounting frame 101. A placing plate 111 is rotatably arranged on the second mounting frame 103. A plurality of first limiting columns 112 are arranged on the placing plate 111. A plurality of support columns 113 are slidably arranged on the first limiting columns 112. The workpiece blank 104 is placed on the placing plate 111, and the workpiece blank 104 is coaxially placed with the first limiting columns 112. The support columns 113 are driven to slide in the first limiting columns 112, and the support columns 113 are attached to the inner wall of the workpiece blank 104. The fixing of the workpiece blank 104 is completed through the support columns 113. A second adjusting block 108 is slidably arranged on the side of the first mounting frame 101. A hob 102 is rotatably arranged on the second adjusting block 108. The hob 102 cuts the workpiece blank 104 to complete the processing of the teeth of the workpiece blank 104. A first adjusting block 106 is slidably arranged on the first mounting frame 101. An adjusting plate 105 is slidably arranged on the first adjusting block 106. Two first clamping rings 107 are slidably arranged at the lower end of the adjusting plate 105. The two first clamping rings 107 are arranged in a mirror image. When the two first clamping rings 107 are driven to approach each other, the workpiece blank 104 is clamped. A placing shaft 115 is rotatably arranged at the lower end of the first mounting frame 101. A plurality of support frames 117 are slidably arranged on the outer side of the placing shaft 115. A support wheel 118 is rotatably arranged on the support frame 117. A spring 119 is arranged between the support frame 117 and the placing shaft 115. The workpiece blank 104 is attached to the support wheel 118. When the workpiece blank 104 is placed on the placing shaft 115, it first contacts the support wheel 118. The workpiece blank 104 presses the support wheel 118 and the support frame 117 to move on the placing shaft 115. The support wheel 118 buffers the placement of the workpiece blank 104 to prevent the workpiece blank 104 from falling during placement. A top shaft 121 is arranged inside the placing shaft 115. A first pressing plate 109 is slidably arranged on the first mounting frame 101. A first liquid outlet pipe 110 is arranged on the side of the first pressing plate 109. When the hob 102 cuts the workpiece blank 104, the first liquid outlet pipe 110 is started to work, and the first liquid outlet pipe 110 pours cutting fluid to the processing position. A positioning column 114 is rotatably arranged at the lower end of the first pressing plate 109. A plurality of first support plates 120 are slidably arranged inside the positioning column 114. The first support plates 120 are attached to the inside of the workpiece blank 104. The first adjusting block 106 is driven to slide on the first mounting frame 101. The first adjusting block 106 drives the adjusting plate 105 and the first clamping ring 107 to move. After the first clamping ring 107 is aligned with the workpiece blank 104 to be removed, the first clamping ring 107 is driven to approach each other to complete the clamping of the workpiece blank 104. The first adjusting block 106 and the adjusting plate 105 are driven to move, and the adjusting plate 105 drives the first clamping ring 107 and the workpiece blank 104 to move. The adjusting plate 105 is placed on the placing shaft 115. After the workpiece blank 104 is placed on the placing shaft 115, the first pressing plate 109 is driven to move on the first mounting frame 101. The first pressing plate 109 drives the positioning column 114 to approach the placing shaft 115. The positioning column 114 is inserted into the workpiece blank 104 and the placing shaft 115, and the top shaft 121 is inserted into the positioning column 114.At this time, the jacking shaft 121 pushes multiple groups of the first support plates 120 to slide within the positioning posts 114. The first support plates 120 are in contact with the inner wall of the workpiece blank 104 and clamp the workpiece blank 104. At this time, the fixation of the workpiece blank 104 is completed. The second adjusting block 108 is driven to approach the workpiece blank 104 to be processed. At the same time, the hob 102 is driven to rotate to process the teeth of the workpiece blank 104.

[0032] The processing assembly 2 includes an adjusting frame 201 slidably mounted on the first mounting frame 101. A transfer frame 203 is slidably arranged within the adjusting frame 201. A positioning plate 202 is slidably arranged on the transfer frame 203. A support shaft is rotatably arranged on the positioning plate 202. Multiple groups of the second support plates 209 are slidably arranged on the support shaft. The second support plates 209 are in contact with the inner wall of the gear 205. By driving the second support plates 209 to slide on the support shaft, the second support plates 209 clamp the inner wall of the gear 205 to complete the fixation of the gear 205. When the support shaft is driven to rotate, the support shaft drives multiple groups of the second support plates 209 to rotate synchronously, and the second support plates 209 drive the gear 205 to rotate. A set of second clamping rings 204 are slidably arranged on both sides of the transfer frame 203. Multiple adjusting wheels 208 are rotatably arranged on the second clamping rings 204. The adjusting wheels 208 are in contact with the gear 205. When the gear 205 rotates, it drives multiple groups of the adjusting wheels 208 to rotate. An adjusting shaft 210 is slidably arranged on the transfer frame 203. A second liquid outlet pipe 206 is rotatably arranged on the adjusting shaft 210. The second liquid outlet pipe 206 pours cleaning liquid onto the gear 205. A wiping column 207 is rotatably arranged on the adjusting shaft 210. The wiping column 207 wipes the gear 205. When cleaning the gear 205, the transfer frame 203 is driven to slide on the adjusting frame 201. The transfer frame 203 drives the second clamping rings 204 to align with the gear 205 on the first mounting frame 101. The adjusting frame 201 is driven to slide on the first mounting frame 101. The adjusting frame 201 drives the second clamping rings 204 to align with the gear 205. The two groups of the second clamping rings 204 are driven to approach each other to complete the clamping of the gear 205. At the same time, the positioning plate 202 is driven to slide on the transfer frame 203. The positioning plate 202 drives the support shaft to insert into the inside of the gear 205. The second support plates 209 are driven to slide on the support shaft to complete the fixation of the gear 205. The adjusting frame 201 is driven to slide on the first mounting frame 101. The adjusting frame 201 drives the gear 205 to move to remove the gear 205 from the placing shaft 115. The transfer frame 203 is driven to reset. Subsequently, the second liquid outlet pipe 206, the wiping column 207 and the support shaft are driven to work. While driving the gear 205 to rotate, the wiping column 207 wipes the gear 205 to complete the cleaning of the gear 205.

[0033] The grooving assembly 3 includes a third mounting bracket 301 mounted on the first mounting bracket 101. A hydraulic cylinder 303 is provided on the third mounting bracket 301, and a broach 304 is provided on the hydraulic cylinder 303. The hydraulic cylinder 303 pushes the broach 304 to move, and the broach 304 cuts the spline groove of the gear 205. A set of third liquid outlet pipes 305 are rotatably provided on both sides of the third mounting bracket 301, and the third liquid outlet pipes 305 pour cutting fluid to the cutting position of the broach 304 and the gear 205. A placing seat 307 is also slidably provided on the first mounting bracket 101, and the gear 205 is placed on the placing seat 307. The broach 304 processes the gear 205 into a spline gear 306. A plurality of groups of connecting rods 308 are rotatably provided outside the placing seat 307, and a second pressing plate 309 is slidably provided on the connecting rods 308. The second pressing plate 309 is attached to the spline gear 306. A recycling bucket 302 for recycling cutting debris is provided at the lower end of the third mounting bracket 301. When it is necessary to process the gear 205 into a spline gear 306, drive the placing seat 307 to slide on the first mounting bracket 101. After the placing seat 307 is aligned with the gear 205 on the transfer rack 203, drive the processing assembly 2 to place the gear 205 on the placing seat 307. Drive the connecting rods 308 to rotate on the placing seat 307, and the connecting rods 308 drive the second pressing plate 309 to rotate. Drive the second pressing plate 309 to slide on the connecting rods 308, and the second pressing plate 309 presses the gear 205 on the placing seat 307. Drive the placing seat 307 to move, and the placing seat 307 drives the gear 205 to be aligned with the broach 304. Start the hydraulic cylinder 303, and the hydraulic cylinder 303 drives the broach 304 to move. The broach 304 cuts the gear 205 and processes the gear 205 into a spline gear 306. At the same time, drive the third liquid outlet pipes 305 to pour cutting fluid to the cutting position of the gear 205.

[0034] Working principle: When working, multiple groups of workpiece blanks 104 need to be placed on the placement plate 111. Drive the support column 113 to slide on the first limit column 112, and the support column 113 fixes the workpiece blank 104. When cutting teeth on the workpiece blank 104, drive the first adjusting block 106 to slide on the first mounting frame 101. The first adjusting block 106 drives the adjusting plate 105 and the first clamping ring 107 to move. After the first clamping ring 107 is aligned with the workpiece blank 104 to be removed, drive the adjusting plate 105 to slide on the first adjusting block 106. The adjusting plate 105 drives the first clamping ring 107 to approach the workpiece blank 104. Drive the two first clamping rings 107 to approach each other, and the first clamping ring 107 clamps the workpiece blank 104. Drive the adjusting plate 105 to reset. Drive the first adjusting block 106 to slide on the first mounting frame 101. The first adjusting block 106 drives the adjusting plate 105, the workpiece blank 104, and the placement shaft 115 to be aligned. Drive the adjusting plate 105 to slide on the first adjusting block 106. The adjusting plate 105 drives the first clamping ring 107 and the workpiece blank 104 to move to place the workpiece blank 104 on the placement shaft 115. The workpiece blank 104 presses the support wheel 118 and the support frame 117 to move on the placement shaft 115. The support wheel 118 buffers the workpiece blank 104 to prevent the workpiece blank 104 from falling. After the workpiece blank 104 is placed on the placement shaft 115, drive the first pressing plate 109 to move on the first mounting frame 101. The first pressing plate 109 drives the positioning column 114 to approach the placement shaft 115. The positioning column 114 is inserted into the workpiece blank 104 and the placement shaft 115. The top shaft 121 is inserted into the positioning column 114. At this time, the top shaft 121 pushes multiple groups of first support plates 120 to slide in the positioning column 114. The first support plates 120 fit against the inner wall of the workpiece blank 104 and clamp the workpiece blank 104. At this time, the fixation of the workpiece blank 104 is completed. Drive the second adjusting block 108 to approach the workpiece blank 104 to be processed. At the same time, drive the hob 102, the positioning column 114, and the placement shaft 115 to rotate to process the teeth of the workpiece blank 104. The hob 102 processes the workpiece blank 104 into a gear 205.

[0035] Drive the pressing plate 109 to reset, release the fixation of the gear 205, drive the adjusting frame 201 to slide on the first mounting frame 101, drive the transfer frame 203 to slide on the adjusting frame 201, the transfer frame 203 drives the second clamping ring 204 to slide on the adjusting frame 201. After the second clamping ring 204 aligns with the gear 205 on the placement shaft 115, drive the adjusting frame 201 to slide on the first mounting frame 101. The adjusting frame 201 drives the second clamping ring 204 to approach the gear 205, drive the second clamping rings 204 to approach each other, the second clamping rings 204 complete the clamping of the gear 205, drive the adjusting frame 201 to slide, and the adjusting frame 201 removes the gear 205 on the first mounting frame 101. Drive the transfer frame 203 to reset, clean the gear 205 after removing it. Drive the positioning plate 202 to slide on the transfer frame 203, the positioning plate 202 drives the support shaft to insert into the gear 205. Drive the second support plate 209 to slide on the support shaft, and the second support plate 209 fits against the inner wall of the gear 205 to complete the fixation of the gear 205. Drive the support shaft to rotate, the support shaft drives the second support plate 209 and the gear 205 to rotate, the gear 205 drives the adjusting wheel 208 to rotate. At the same time, drive the second liquid outlet pipe 206 to rotate on the adjusting shaft 210 to adjust the angle of the second liquid outlet pipe 206. When starting the second liquid outlet pipe 206, the second liquid outlet pipe 206 pours cleaning liquid onto the wiping column 207 and the gear 205. At the same time, drive the wiping column 207 to rotate, and the wiping column 207 cleans the gear 205. Drive the adjusting shaft 210 to slide on the transfer frame 203 to adjust the position of the second liquid outlet pipe 206 and improve the cleaning efficiency of the gear 205.

[0036] After completing the cleaning of the gear 205, drive the placement seat 307 to slide on the first mounting frame 101. The placement seat 307 aligns with the gear 205 on the processing component 2. Drive the adjusting frame 201 to slide on the first mounting frame 101, and the adjusting frame 201 drives the gear 205 to move. Drive the second clamping ring 204 and the positioning plate 202 to reset, release the fixation of the gear 205. After placing the gear 205 on the placement seat 307, drive the connecting rod 308 to rotate on the placement seat 307, the connecting rod 308 drives the second pressing plate 309 to rotate. Drive the second pressing plate 309 to slide on the connecting rod 308, and the second pressing plate 309 presses the spline gear 306 onto the placement seat 307 to complete the fixation of the spline gear 306. Drive the placement seat 307 to slide on the first mounting frame 101, and the placement seat 307 drives the gear 205 to align with the broach 304. Drive the third liquid outlet pipe 305 to rotate on the hydraulic cylinder 303. The spline gear 306 aligns with the spline groove machining position of the gear 205. Start the hydraulic cylinder 303, and the hydraulic cylinder 303 drives the broach 304 to cut the spline groove on the gear 205 to process the gear 205 into a spline gear 306. At the same time, the debris generated during the processing falls into the recycling bin 302 to recycle the debris.

Claims

1. A stainless steel gear production device, comprising a cutting assembly (1), wherein the cutting assembly (1) comprises a mounting frame (101), characterized in that: The mounting frame 1 (101) is provided with a mounting frame 2 (103), an adjusting block 2 (108) and a placement shaft (115); a plurality of groups of workpiece embryos (104) are placed on the mounting frame 2 (103); a roller (102) is rotatably provided on the adjusting block 2 (108); a workpiece embryo (104) is placed on the placement shaft (115); a pressing plate 1 (109), a processing assembly (2) and a slotting assembly (3) are slidably provided on the mounting frame 1 (101); a liquid outlet pipe 1 (110) and a positioning column (114) are provided on the pressing plate 1 (109); the positioning column (114) presses the workpiece embryo (104) on the placement shaft (115) 5), the cutting assembly (1) processes the workpiece blank (104) into a gear (205), the processing assembly (2) comprises an adjusting frame (201) slidably mounted on the mounting frame one (101), a transfer frame (203) is slidably arranged on the adjusting frame (201), a transfer mechanism and an adjusting shaft (210) are arranged on the transfer frame (203), a liquid outlet pipe two (206) and a wiping column (207) are arranged on the adjusting shaft (210), the slotting assembly (3) comprises a mounting frame three (301) and a placement seat (307) mounted on the mounting frame one (101), and a liquid outlet pipe three (305) is arranged on the mounting frame three (301); A plurality of groups of support frames (117) are slidably arranged on the placement shaft (115), a spring (119) is arranged between the support frame (117) and the placement shaft (115), a support wheel (118) is arranged on the support frame (117), and the support wheel (118) is in contact with the workpiece embryo (104); A plurality of groups of support plates (120) are slidably disposed on the positioning column (114), and a top shaft (121) is disposed on the placement shaft (115); The transfer mechanism comprises a positioning plate (202) slidably mounted on a transfer frame (203), a support shaft being rotatably arranged on the positioning plate (202), and a plurality of groups of support plates (209) being slidably arranged on the support shaft; A second clamping ring (204) is slidably disposed on the transfer frame (203), and a plurality of groups of adjusting wheels (208) are rotatably disposed on the second clamping ring (204).

2. A stainless steel gear production device according to claim 1, characterized in that: A placement plate (111) is rotatably arranged on the second mounting frame (103), a plurality of groups of first limiting columns (112) are arranged on the placement plate (111), and a plurality of groups of support columns (113) are slidably arranged inside the first limiting columns (112).

3. A stainless steel gear production device according to claim 2, characterized in that: An adjusting block (106) is slidably disposed on the mounting frame (101), an adjusting plate (105) is slidably disposed on the adjusting block (106), and a clamping ring (107) is slidably disposed on the adjusting plate (105).

4. The stainless steel gear production device according to claim 1, characterized in that: A plurality of groups of liquid outlet pipes (305) are rotatably arranged on the mounting frame (301), and a recovery bucket (302) is arranged at the lower end of the mounting frame (301).

5. A stainless steel gear production device according to claim 4, characterized in that: The placement seat (307) is provided with a plurality of rotating connecting rods (308), and the connecting rods (308) are provided with a second pressing plate (309).

Images