Rotating structure of titanizing device for anode connecting rod machining

Abstract

The utility model relates to the related technical field of anode connecting rods, in particular to a rotating structure of a titanizing device for anode connecting rod machining, which comprises a base, and a damping mechanism is arranged on the bottom surface of the base. In a buffer groove above a damping seat, a telescopic rod slides in a telescopic pipe, meanwhile, a buffer spring wound on the surface of the outer wall of the telescopic rod is compressed or stretched, vibration energy can be further absorbed through elastic deformation of the buffer spring, the vibration amplitude transmitted to a top plate above is reduced, and sliding blocks on the two sides of the top plate slide in sliding grooves; and the top plate and the base are firmly connected through the connecting blocks at the two ends of the top plate, so that the whole damping mechanism can effectively disperse and absorb vibration energy, and therefore the stability of the rotating structure in the working process is guaranteed.

Description

Technical Field

[0001] The utility model relates to the technical field of anode connecting rods, in particular to a rotating structure of a titanium plating device for processing anode connecting rods. Background Art

[0002] An anode connecting rod is a component that plays a connecting and transmission role in a specific device or system. It is usually made of a specific metal material and is anodized to enhance its corrosion resistance, hardness, wear resistance and other properties. In some mechanical systems, the anode connecting rod connects two or more moving parts, transmitting power from one part to another to achieve specific movement or function. For example, in an engine, the connecting rod connects the piston and the crankshaft, converting the reciprocating motion of the piston into the rotational motion of the crankshaft. The anode connecting rod usually has an irregular shape, and it is difficult to ensure the uniform distribution of the titanium coating on various parts of the connecting rod by static titanium plating alone. The rotating structure can enable the connecting rod to continuously change its angle and position during the titanium plating process to ensure that titanium ions can be evenly deposited on the surface of the connecting rod, avoiding the situation where the local coating is too thick or too thin. Therefore, there is a special need for a rotating structure of a titanium plating device for anode connecting rod processing.

[0003] However, the rotating structure of the existing titanium plating device for anode connecting rod processing may be disturbed by external factors during the rotation process, such as the vibration of the equipment, the flow of the titanium plating liquid, etc., which may affect the stability of the rotation. The unstable rotation will cause the anode connecting rod to shake during the titanium plating process, thereby affecting the quality of the titanium plating layer and may even cause the anode connecting rod to collide with other parts of the titanium plating device, damaging the equipment. Utility Model Content

[0004] The purpose of the present utility model is to provide a rotating structure of a titanium plating device for processing an anode connecting rod, so as to solve the problem that the rotating structure of the existing titanium plating device for processing an anode connecting rod proposed in the above background technology, but the rotating structure of the existing titanium plating device for processing an anode connecting rod may be disturbed by external factors during the rotation process, such as vibration of the equipment, flow of titanium plating liquid, etc., resulting in the stability of the rotation being affected, and the unstable rotation will cause the anode connecting rod to shake during the titanium plating process, thereby affecting the quality of the titanium plating layer, and may even cause the anode connecting rod to collide with other components of the titanium plating device, damaging the equipment.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a rotating structure of a titanium plating device for processing an anode connecting rod, comprising a base, a motor mounting seat fixedly connected to the interior of the base, a motor mounted inside the motor mounting seat, a transmission shaft fixedly connected to the upper surface of the motor, a first gear fixedly connected to the upper surface of the transmission shaft, a belt attached to the outer wall surface of the first gear, a second gear attached to the inner side of the other end of the belt, a rotating shaft fixedly connected to the surface of the second gear, a bearing rotatably connected to the bottom surface of the rotating shaft, a bearing seat fixedly connected to the bottom surface of the bearing, a mounting mechanism provided on the upper surface of the rotating shaft, and a shock absorbing mechanism provided on the bottom surface of the base;

[0006] The shock-absorbing mechanism includes a buffer box, a shock-absorbing pad, a shock-absorbing seat, a buffer groove, a slide groove, a telescopic tube, a telescopic rod, a buffer spring, a support block, a top plate, a slider and a connecting block. The bottom surface of the base is slidably connected to the buffer box, the bottom surface of the inner wall of the buffer box is fixedly connected to the shock-absorbing pad, the upper surface of the shock-absorbing pad is fixedly connected to the shock-absorbing seat, the upper surface of the shock-absorbing seat is fixedly connected to the buffer groove, the inner side surface of the buffer groove is provided with a slide groove, the inner bottom surface of the buffer groove is fixedly connected to the telescopic tube, the inside of the telescopic tube is slidably connected to the telescopic rod, the outer wall surface of the telescopic rod is wound with a buffer spring, the upper surfaces of the telescopic rod and the buffer spring are both fixedly connected to the support block, the upper surface of the support block is fixedly connected to the top plate, the two side surfaces of the top plate are fixedly connected to the slider, and the two ends of the top plate are fixedly connected to the connecting block.

[0007] Preferably, the transmission shaft cooperates with the first gear through the motor to form a rotating structure, and the belt drives the second gear to rotate through the first gear.

[0008] Preferably, the rotating shaft is made of high-strength alloy steel, and the bearing and the bearing seat are used to support the rotating shaft.

[0009] Preferably, the mounting mechanism includes a connecting sleeve, a threaded block, a fixing hole, a mounting block, a threaded groove, a telescopic hole, a telescopic spring, a limiting plate, a fixing block and an anode connecting rod. The upper surface of the Su Sohu rotating shaft is fixedly connected with the connecting sleeve, the inner wall surface of the connecting sleeve is fixedly connected with the threaded block, the inner side surface of the connecting sleeve is provided with a fixing hole, the internal thread of the connecting sleeve is connected with the mounting block, the bottom outer wall surface of the mounting block is provided with a threaded groove, the inside of the threaded groove is provided with a telescopic hole, one end surface of the inner wall of the telescopic hole is fixedly connected with the telescopic spring, the outer end surface of the telescopic spring is fixedly connected with the limiting plate, the outer end surface of the limiting plate is fixedly connected with the fixing block, and the upper surface of the mounting block is connected with the anode connecting rod.

[0010] Preferably, the mounting block is connected to the connecting sleeve via a threaded groove and a threaded block, and the inner wall size of the threaded groove matches the outer wall size of the threaded block.

[0011] Preferably, the limiting plate cooperates with the fixing block through a telescopic spring to form a telescopic structure, and the outer wall size of the fixing block is consistent with the inner wall size of the fixing hole.

[0012] Preferably, the position of the slider corresponds to the position of the chute, and the outer wall size of the slider matches the inner wall size of the chute.

[0013] Compared with the prior art, the technical solution of the present application has the following beneficial effects: a rotating structure of a titanium plating device for processing an anode connecting rod, through the setting of a shock-absorbing mechanism, when the rotating structure is disturbed by external interference and generates vibration during operation, the base will transmit the vibration to the buffer box, at this time, the shock-absorbing pad in the buffer box will first play a role, and absorb part of the vibration energy through its own elastic deformation, and then the vibration will be further transmitted to the shock-absorbing seat, in the buffer groove above the shock-absorbing seat, the telescopic rod slides in the telescopic tube, and at the same time the buffer spring wrapped around the outer wall surface of the telescopic rod is compressed or stretched, and the elastic deformation of the buffer spring can further absorb the vibration energy and reduce the transmission to the top The vibration amplitude of the plate, the sliders on both sides of the top plate slide in the slide groove, which plays a guiding and stabilizing role, ensuring that the top plate remains stable during the up and down movement, and the connecting blocks at both ends of the top plate firmly connect the top plate to the base, so that the entire shock absorbing mechanism can effectively disperse and absorb the vibration energy, thereby ensuring the stability of the rotating structure during operation. In this way, even if disturbed by external factors, the impact of vibration on the rotating shaft and the anode connecting rod installed thereon can be minimized, ensuring that the anode connecting rod will not shake during the titanium plating process, improving the quality of the titanium plating layer, and avoiding collision between the anode connecting rod and other components of the titanium plating device to protect the safety of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a schematic diagram of the front view structure of the utility model;

[0015] Figure 2 This is a schematic diagram of the structure of the exterior side of the utility model;

[0016] Figure 3 This is a schematic diagram of the cross-sectional structure of the installation mechanism of the utility model;

[0017] Figure 4 This is a schematic cross-sectional view of the shock absorbing mechanism of the present utility model;

[0018] Figure 5 This is a schematic diagram of the structure of the buffer tank and the top plate cooperating with each other in the utility model;

[0019] Figure 6For this utility model Figure 3 Enlarged structural diagram at point A in the middle.

[0020] In the figure: 1. base; 2. motor mounting seat; 3. motor; 4. transmission shaft; 5. first gear; 6. belt; 7. second gear; 8. rotating shaft; 9. bearing; 10. bearing seat; 11. mounting mechanism; 1101. connecting sleeve; 1102. threaded block; 1103. fixing hole; 1104. mounting block; 1105. threaded groove; 1106. telescopic hole; 1107. telescopic spring; 1108. limit plate; 1109. fixing block; 1110. anode connecting rod; 12. shock absorbing mechanism; 1201. buffer box; 1202. shock absorbing pad; 1203. shock absorbing seat; 1204. buffer groove; 1205. slide groove; 1206. telescopic tube; 1207. telescopic rod; 1208. buffer spring; 1209. support block; 1210. top plate; 1211. slider; 1212. connecting block. DETAILED DESCRIPTION

[0021] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0022] See also Figure 1-6 The utility model provides a technical solution: a rotating structure of a titanium plating device for processing an anode connecting rod, comprising a base 1, a motor mounting base 2 fixedly connected to the interior of the base 1, a motor 3 installed inside the motor mounting base 2, a transmission shaft 4 fixedly connected to the upper surface of the motor 3, a first gear 5 fixedly connected to the upper surface of the transmission shaft 4, a belt 6 attached to the outer wall surface of the first gear 5, a second gear 7 attached to the inner side of the other end of the belt 6, a rotating shaft 8 fixedly connected to the surface of the second gear 7, a bearing 9 rotatably connected to the bottom surface of the rotating shaft 8, a bearing seat 10 fixedly connected to the bottom surface of the bearing 9, a mounting mechanism 11 provided on the upper surface of the rotating shaft 8, and a shock absorbing mechanism 12 provided on the bottom surface of the base 1;

[0023] The shock absorbing mechanism 12 includes a buffer box 1201, a shock absorbing pad 1202, a shock absorbing seat 1203, a buffer groove 1204, a slide 1205, a telescopic tube 1206, a telescopic rod 1207, a buffer spring 1208, a support block 1209, a top plate 1210, a slider 1211 and a connecting block 1212. The bottom surface of the base 1 is slidably connected to the buffer box 1201, the bottom surface of the inner wall of the buffer box 1201 is fixedly connected to the shock absorbing pad 1202, the upper surface of the shock absorbing pad 1202 is fixedly connected to the shock absorbing seat 1203, the upper surface of the shock absorbing seat 1203 is fixedly connected to the buffer groove 1204, and the inner surface of the buffer groove 1204 is provided with a slide 1205. , the inner bottom surface of the buffer groove 1204 is fixedly connected with a telescopic tube 1206, the inner sliding connection of the telescopic tube 1206 is connected with a telescopic rod 1207, the outer wall surface of the telescopic rod 1207 is wound with a buffer spring 1208, the upper surfaces of the telescopic rod 1207 and the buffer spring 1208 are fixedly connected with a support block 1209, the upper surface of the support block 1209 is fixedly connected with a top plate 1210, the two side surfaces of the top plate 1210 are fixedly connected with sliders 1211, and the two ends of the top plate 1210 are fixedly connected with connecting blocks 1212. Through the setting of the shock absorbing mechanism 12, when the rotating structure is disturbed by external interference and vibrates during operation, the base 1 will reduce the vibration The vibration is then transmitted to the buffer box 1201. At this time, the shock-absorbing pad 1202 in the buffer box 1201 first plays a role and absorbs part of the vibration energy through its own elastic deformation. Then, the vibration is further transmitted to the shock-absorbing seat 1203. In the buffer groove 1204 above the shock-absorbing seat 1203, the telescopic rod 1207 slides in the telescopic tube 1206. At the same time, the buffer spring 1208 wrapped around the outer wall surface of the telescopic rod 1207 is compressed or stretched. The elastic deformation of the buffer spring 1208 can further absorb the vibration energy and reduce the vibration amplitude transmitted to the upper top plate 1210. The sliders 1211 on both sides of the top plate 1210 slide in the slide groove 1205, playing a guiding and The stabilizing effect ensures that the top plate 1210 remains stable during the up and down movement, and the connecting blocks 1212 at both ends of the top plate 1210 firmly connect the top plate 1210 to the base 1, so that the entire shock absorbing mechanism 12 can effectively disperse and absorb the vibration energy, thereby ensuring the stability of the rotating structure during operation. In this way, even if disturbed by external factors, the impact of vibration on the rotating shaft 8 and the anode connecting rod installed thereon can be minimized, ensuring that the anode connecting rod 1110 will not shake during the titanium plating process, improving the quality of the titanium plating layer, and avoiding collision between the anode connecting rod 1110 and other components of the titanium plating device to protect the safety of the equipment.

[0024] Furthermore, the transmission shaft 4 cooperates with the first gear 5 through the motor 3 to form a rotating structure, and the belt 6 drives the second gear 7 to rotate through the first gear 5. Through the arrangement of the motor 3, the transmission shaft 4, the first gear 5, the belt 6 and the second gear 7, the motor 3 can provide stable and powerful power, and accurately transmit the power to the first gear 5 through the transmission shaft 4. This transmission method is highly efficient and can ensure that the rotating structure starts quickly and runs stably, providing continuous and reliable rotational power for the titanium plating process of the anode connecting rod 1110. At the same time, the belt 6 transmission has a buffering effect, which can effectively reduce the impact and vibration during the transmission process. When the first gear 5 drives the second gear 7 to rotate through the belt 6, the rotation can be made smoother, reducing the impact on the anode connecting rod 1110 and ensuring the uniformity of the titanium plating layer.

[0025] Furthermore, the rotating shaft 8 is made of high-strength alloy steel, and the bearing 9 and the bearing seat 10 are used to support the rotating shaft 8. Through the arrangement of the bearing 9 and the bearing seat 10, the rotating shaft 8 is made of high-strength alloy steel, has extremely high strength and hardness, and can withstand various forces and torques generated by the anode connecting rod 1110 during rotation, ensuring the stability and reliability of the rotating structure. Even under high-speed rotation and heavy load conditions, it is not easy to deform or damage. The bearing 9 and the bearing seat 10 provide good support and guiding for the rotating shaft 8, so that the rotating shaft 8 can rotate smoothly under extremely small friction resistance, reducing energy loss and wear. At the same time, it also ensures the accuracy and stability of the rotation and improves the quality of the titanium plating layer.

[0026] Furthermore, the mounting mechanism 11 includes a connecting sleeve 1101, a threaded block 1102, a fixing hole 1103, a mounting block 1104, a threaded groove 1105, a telescopic hole 1106, a telescopic spring 1107, a limiting plate 1108, a fixing block 1109 and an anode connecting rod 1110. The upper surface of the rotating shaft 8 is fixedly connected with the connecting sleeve 1101, the inner wall surface of the connecting sleeve 1101 is fixedly connected with the threaded block 1102, the inner side surface of the connecting sleeve 1101 is provided with a fixing hole 1103, the internal thread of the connecting sleeve 1101 is connected with the mounting block 1104, and the bottom outer wall surface of the mounting block 1104 is provided with a threaded Groove 1105, a telescopic hole 1106 is opened inside the threaded groove 1105, and a telescopic spring 1107 is fixedly connected to the inner wall surface of the telescopic hole 1106. The outer end surface of the telescopic spring 1107 is fixedly connected to the limiting plate 1108, and the outer end surface of the limiting plate 1108 is fixedly connected to the fixing block 1109. The upper surface of the mounting block 1104 is connected to the anode connecting rod 1110. Through the setting of the mounting mechanism 11, first, the mounting block 1104 is aligned with the connecting sleeve 1101 and inserted. The threaded groove 1105 on the outer wall surface of the bottom of the mounting block 1104 cooperates with the threaded block 1102 on the inner wall surface of the connecting sleeve 1101. , by rotating the mounting block 1104, the two are gradually tightened and fixed. During the tightening process, the mounting block 1104 continues to penetrate into the connecting sleeve 1101. When the mounting block 1104 enters a certain position, the fixing block 1109 in the telescopic hole 1106 is aligned with the fixing hole 1103 on the inner surface of the connecting sleeve 1101 under the action of the telescopic spring 1107. At this time, the telescopic spring 1107 pushes the limit plate 1108, thereby making the fixing block 1109 extend and fit into the fixing hole 1103, further enhancing the connection stability between the mounting block 1104 and the connecting sleeve 1101. When the anode connecting rod 1110 is connected to the upper surface of the mounting block 1104, one end of the anode connecting rod 1110 is connected to the upper surface of the mounting block 1104, and threaded connection, snap-on connection and the like can be adopted. When the rotating structure is working, the rotating shaft 8 drives the connecting sleeve 1101 to rotate, and the connecting sleeve 1101 stably drives the mounting block 1104 to rotate through the threaded connection and the snap-fit ​​action of the fixed block 1109. The mounting block 1104 then drives the anode connecting rod 1110 to rotate, ensuring that the anode connecting rod 1110 can be evenly titanium-plated during the titanium plating process. At the same time, the design of this mounting mechanism 11 makes the installation and disassembly of the anode connecting rod 1110 more convenient and quick, thereby improving production efficiency.

[0027] Furthermore, the mounting block 1104 is connected to the connecting sleeve 1101 through the thread groove 1105 and the thread block 1102, and the inner wall size of the thread groove 1105 matches the outer wall size of the thread block 1102. Through the arrangement of the thread block 1102 and the thread groove 1105, the mounting block 1104 is connected to the connecting sleeve 1101 through the thread groove 1105 and the thread block 1102. This threaded connection method can provide a strong connection force to ensure that the mounting block 1104 and the connecting sleeve 1101 will not be easily loosened or separated during the rotation process, that is, It can maintain a stable connection state even under high-speed rotation and external force, providing reliable support for the rotational titanium plating of the anode connecting rod 1110. The inner wall size of the thread groove 1105 matches the outer wall size of the threaded block 1102, making the fit between the two tighter and reducing the possibility of gaps and looseness. This precise fit ensures that the rotational force of the rotating shaft 8 can be effectively transmitted to the mounting block 1104 and the anode connecting rod 1110, improving the accuracy and stability of the rotation, thereby ensuring the uniformity of the quality of the titanium plating layer.

[0028] Furthermore, the limiting plate 1108 cooperates with the fixing block 1109 through the telescopic spring 1107 to form a telescopic structure. The outer wall size of the fixing block 1109 is consistent with the inner wall size of the fixing hole 1103. Through the arrangement of the fixing hole 1103 and the fixing block 1109, when the mounting block 1104 is screwed into the connecting sleeve 1101, the fixing block 1109 is stuck in the fixing hole 1103 under the action of the telescopic spring 1107, further enhancing the connection stability between the mounting block 1104 and the connecting sleeve 1101. This double connection method effectively prevents the mounting block 1104 from being screwed into the connecting sleeve 1101. 4 loosening or displacement occurs during the rotation process, ensuring the smooth rotation titanium plating process of the anode connecting rod 1110. During the installation process, the fixing block 1109 will automatically snap into the fixing hole 1103 under the push of the telescopic spring 1107 to achieve automatic locking. This automatic locking function not only facilitates operation, but also improves the efficiency and reliability of installation. At the same time, when disassembling, it is only necessary to apply a certain external force to make the fixing block 1109 overcome the elastic force of the telescopic spring 1107 and withdraw from the fixing hole 1103, so that the installation block 1104 can be easily removed from the connecting sleeve 1101.

[0029] Furthermore, the position of the slider 1211 corresponds to the position of the slide groove 1205, and the outer wall size of the slider 1211 is consistent with the inner wall size of the slide groove 1205. Through the setting of the slide groove 1205 and the slider 1211, during the operation of the shock absorbing mechanism 12, the slider 1211 slides in the slide groove 1205, playing a guiding role. This guiding role ensures that the top plate 1210 maintains a stable direction during the up and down movement, avoids the top plate 1210 from deflecting or shaking, and thus ensures the shock absorbing effect of the shock absorbing mechanism 12.

[0030] Working principle: First, start the motor 3, and the motor 3 transmits power to the first gear 5 through the transmission shaft 4. The first gear 5 rotates and drives the second gear 7 to rotate through the belt 6, and the second gear 7 drives the rotating shaft 8 to start rotating. Since the rotating shaft 8 is made of high-strength alloy steel, it can withstand large forces and torques. With the good support and guidance of the bearing 9 and the bearing seat 10, the rotating shaft 8 can rotate stably and smoothly, reducing energy loss and wear, and ensuring the accuracy and stability of the rotation. When the rotating shaft 8 rotates, the connecting sleeve 1101 above it also rotates. When installing the anode connecting rod 1110, align the mounting block 1104 with the connecting sleeve 1101 and insert it. The threaded groove 1105 on the outer wall of the bottom of the mounting block 1104 is aligned with the threaded groove 1105 on the outer wall of the bottom The threaded blocks 1102 on the inner wall of the connecting sleeve 1101 cooperate with each other, and the two are gradually tightened and fixed by rotating the mounting block 1104. During the tightening process, the mounting block 1104 continues to penetrate into the interior of the connecting sleeve 1101. When the mounting block 1104 enters a certain position, the fixing block 1109 in the telescopic hole 1106 is aligned with the fixing hole 1103 on the inner surface of the connecting sleeve 1101 under the action of the telescopic spring 1107. The telescopic spring 1107 pushes the limit plate 1108 to make the fixing block 1109 extend and fit into the fixing hole 1103, further enhancing the connection stability between the mounting block 1104 and the connecting sleeve 1101. Then, one end of the anode connecting rod 1110 is connected to the upper surface of the mounting block 1104. The connection method Threaded connection, snap connection, etc. can be used. When the rotating structure is working, the rotating shaft 8 drives the connecting sleeve 1101 to rotate. The connecting sleeve 1101 stably drives the mounting block 1104 to rotate through the threaded connection and the snap action of the fixed block 1109. The mounting block 1104 then drives the anode connecting rod 1110 to rotate. During the entire rotation process, the equipment may be disturbed by external factors, such as the vibration of the equipment, the flow of titanium plating liquid, etc. At this time, the shock absorbing mechanism 12 at the bottom of the base 1 begins to play a role. When vibration occurs, the base 1 transmits the vibration to the buffer box 1201. The shock absorbing pad 1202 in the buffer box 1201 first absorbs part of the vibration energy through its own elastic deformation, and then the vibration is transmitted to the shock absorbing seat 1203. The shock absorbing seat 1 The telescopic rod 1207 in the buffer groove 1204 above 203 slides in the telescopic tube 1206, and at the same time, the buffer spring 1208 wrapped around the outer wall surface of the telescopic rod 1207 is compressed or stretched, further absorbing vibration energy and reducing the vibration amplitude transmitted to the upper top plate 1210. The sliders 1211 on both sides of the top plate 1210 slide in the slide groove 1205, playing a guiding and stabilizing role, ensuring that the top plate 1210 remains stable during the up and down movement, and the connecting blocks 1212 at both ends of the top plate 1210 firmly connect the top plate 1210 to the base 1, so that the entire shock absorbing mechanism 12 can effectively disperse and absorb vibration energy, thereby ensuring the stability of the rotating structure during operation. In this way, even if disturbed by external factors,It can also minimize the impact of vibration on the rotating shaft 8 and the anode connecting rod 1110 mounted thereon, ensuring that the anode connecting rod 1110 does not shake during the titanium plating process, improving the quality of the titanium coating, and preventing the anode connecting rod 1110 from colliding with other components of the titanium plating device, thereby protecting the safety of the equipment. The model of the motor 3 is YE2-132S-4. This completes the use process of a rotating structure of a titanium plating device for processing an anode connecting rod.

[0031] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations may be made to these embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A rotating structure of a titanium plating device for processing an anode connecting rod, comprising a base (1), characterized in that: The interior of the base (1) is fixedly connected to a motor mounting seat (2), a motor (3) is installed inside the motor mounting seat (2), the upper surface of the motor (3) is fixedly connected to a transmission shaft (4), the upper surface of the transmission shaft (4) is fixedly connected to a first gear (5), the outer wall surface of the first gear (5) is affixed to a belt (6), the inner side of the other end of the belt (6) is affixed to a second gear (7), the surface of the second gear (7) is fixedly connected to a rotating shaft (8), the bottom surface of the rotating shaft (8) is rotatably connected to a bearing (9), the bottom surface of the bearing (9) is fixedly connected to a bearing seat (10), the upper surface of the rotating shaft (8) is provided with a mounting mechanism (11), and the bottom surface of the base (1) is provided with a shock absorbing mechanism (12); The shock absorbing mechanism (12) comprises a buffer box (1201), a shock absorbing pad (1202), a shock absorbing seat (1203), a buffer groove (1204), a slide groove (1205), a telescopic tube (1206), a telescopic rod (1207), a buffer spring (1208), a support block (1209), a top plate (1210), a slider (1211) and a connecting block (1212); the bottom surface of the base (1) is slidably connected to the buffer box (1201); the bottom surface of the inner wall of the buffer box (1201) is fixedly connected to the shock absorbing pad (1202); the upper surface of the shock absorbing pad (1202) is fixedly connected to the shock absorbing seat (1203); and the upper surface of the shock absorbing seat (1203) is fixedly connected to the buffer groove (1204). The inner surface of the buffer groove (1204) is provided with a sliding groove (1205), the inner bottom surface of the buffer groove (1204) is fixedly connected with a telescopic tube (1206), the inner part of the telescopic tube (1206) is slidably connected with a telescopic rod (1207), the outer wall surface of the telescopic rod (1207) is wound with a buffer spring (1208), the upper surfaces of the telescopic rod (1207) and the buffer spring (1208) are fixedly connected with a support block (1209), the upper surface of the support block (1209) is fixedly connected with a top plate (1210), the two side surfaces of the top plate (1210) are fixedly connected with sliders (1211), and the two ends of the top plate (1210) are fixedly connected with connecting blocks (1212).

2. The rotating structure of the titanium plating device for processing an anode connecting rod according to claim 1, characterized in that: The transmission shaft (4) cooperates with the first gear (5) through the motor (3) to form a rotating structure, and the belt (6) drives the second gear (7) to rotate through the first gear (5).

3. The rotating structure of the titanium plating device for processing an anode connecting rod according to claim 1, characterized in that: The rotating shaft (8) is made of high-strength alloy steel, and the bearing (9) and the bearing seat (10) are used to support the rotating shaft (8).

4. The rotating structure of the titanium plating device for processing an anode connecting rod according to claim 1, characterized in that: The mounting mechanism (11) comprises a connecting sleeve (1101), a threaded block (1102), a fixing hole (1103), a mounting block (1104), a threaded groove (1105), a telescopic hole (1106), a telescopic spring (1107), a limiting plate (1108), a fixing block (1109) and an anode connecting rod (1110). The upper surface of the rotating shaft (8) is fixedly connected with the connecting sleeve (1101), the inner wall surface of the connecting sleeve (1101) is fixedly connected with the threaded block (1102), the inner side surface of the connecting sleeve (1101) is provided with a fixing hole (1103), and the connecting sleeve The internal thread of (1101) is connected to a mounting block (1104), a thread groove (1105) is provided on the bottom outer wall surface of the mounting block (1104), a telescopic hole (1106) is provided inside the thread groove (1105), a telescopic spring (1107) is fixedly connected to one end surface of the inner wall of the telescopic hole (1106), the outer end surface of the telescopic spring (1107) is fixedly connected to a limiting plate (1108), the outer end surface of the limiting plate (1108) is fixedly connected to a fixing block (1109), and the upper surface of the mounting block (1104) is connected to an anode connecting rod (1110).

5. The rotating structure of the titanium plating device for processing an anode connecting rod according to claim 4, characterized in that: The mounting block (1104) is connected to the connecting sleeve (1101) via the threaded groove (1105) and the threaded block (1102), and the inner wall size of the threaded groove (1105) matches the outer wall size of the threaded block (1102).

6. The rotating structure of the titanium plating device for processing an anode connecting rod according to claim 4, characterized in that: The limiting plate (1108) cooperates with the fixing block (1109) via the telescopic spring (1107) to form a telescopic structure, and the outer wall size of the fixing block (1109) matches the inner wall size of the fixing hole (1103).

7. The rotating structure of the titanium plating device for processing an anode connecting rod according to claim 1, characterized in that: The position of the slider (1211) corresponds to the position of the slide groove (1205), and the outer wall size of the slider (1211) matches the inner wall size of the slide groove (1205).

Images