A continuous conveying device for finished molybdenum rods

Abstract

The application discloses a kind of molybdenum rod finished product continuous conveying equipment, it is related to conveying equipment technical field, to solve molybdenum rod high-speed conveying friction heat, conventional roller without follow-up heat dissipation structure, need to stop cooling influence production rhythm, simultaneously, adjust roller body can only stop locking setting, when running cannot self-adapting compensation, easy to slip unstable feeding, it is not conducive to continuous stable conveying technical problem, including frame body mechanism and conveying mechanism.The application is designed rolling assembly, movable assembly and friction assembly, the device in molybdenum rod conveying operation process, using molybdenum rod self-weight extrusion contact position conveying plate, so that the device can in the working condition of equipment continuous non-stop conveying, real-time take away the accumulated heat generated by roller conveying plate and molybdenum rod friction, without manual stop blowing and natural cooling, completely solve the problem of traditional equipment heat dissipation lag and serious heat accumulation, guarantee molybdenum rod finished product surface forming quality and surface finish, ensure that production line can long-term continuous stable operation.

Description

Technical Field

[0001] This invention relates to the field of conveying equipment technology, and more specifically, to a continuous conveying equipment for finished molybdenum rods. Background Technology

[0002] As a finished product of high-temperature refractory metal processing, molybdenum rods have high requirements for surface finish and dimensional accuracy. After sintering or finishing, they need to be continuously transported by a special V-shaped roller conveyor. The V-shaped support structure can lift and limit the slender molybdenum rods, preventing the workpiece from rolling sideways during the transport process. It is a commonly used conveying equipment in the continuous transport stage at the back end of the molybdenum rod production line.

[0003] In actual production, there will be slight tolerances in the outer diameter of molybdenum rods from different batches, and the workpiece itself will also have slight bending deformation. The rigidly fixed V-shaped roller cannot adapt to the shape of the workpiece and make self-adaptive fine adjustments, which can easily lead to local false contact or excessive stress on a single point.

[0004] When molybdenum rods are conveyed at high speeds, the continuous friction between the workpiece and the roller surface generates heat. This heat accumulates at the contact points with the rollers for extended periods. On one hand, this can accelerate the aging and wear of the wear-resistant layer on the roller surface, shortening the roller replacement cycle. On the other hand, the continuous application of localized high temperatures to the molybdenum rod surface may affect the surface forming quality of the molybdenum rod. Existing roller conveyor equipment lacks a matching follow-up heat dissipation structure and mostly relies on natural air cooling, which has limited heat dissipation effect. The only solution is to periodically stop the machine to blow and cool the rollers, interrupting the continuous conveying process of the production line and reducing the overall production cycle.

[0005] Most V-type conveyor mechanisms with adjustable roller spacing on the market require manual locking and positioning during machine shutdown. After adjustment, the roller support position remains fixed, and the conveying process no longer has adaptive compensation capabilities. When conveying molybdenum rods of different specifications, operators need to repeatedly disassemble and assemble fasteners to complete the spacing calibration. The debugging process is time-consuming. When the force on the workpiece changes, the support structure cannot be adjusted in real time with the workpiece, which can easily lead to insufficient clamping friction, causing the molybdenum rod to slip and resulting in poor feeding. The conveying efficiency is difficult to guarantee. Relying solely on the manual preset spacing adjustment mode, in long-term continuous operation scenarios, the combination of insufficient heat dissipation and poor support fit will increase the frequency of equipment maintenance and the risk of workpiece defects, which is not conducive to the stable and efficient automated conveying of molybdenum rod products.

[0006] In view of this, we propose a continuous conveying device for finished molybdenum rods. Summary of the Invention

[0007] The purpose of this invention is to provide a continuous conveying device for finished molybdenum rods, which solves the technical problems of frictional heat accumulation during high-speed conveying of molybdenum rods, the lack of a follow-up heat dissipation structure in conventional roller conveyors, the need to stop the machine for cooling which affects the production rhythm, and the inability of the roller body to be adjusted by stopping the machine and locking the setting, which cannot be adaptively compensated during operation, easily leading to slippage and unstable feeding, which is not conducive to continuous and stable conveying.

[0008] To solve the above-mentioned technical problems, the present invention provides the following technical solution: a continuous conveying device for finished molybdenum rods, comprising a frame mechanism and a conveying mechanism, wherein the frame mechanism is connected to multiple sets of conveying mechanisms, and two conveying mechanisms located in the same horizontal direction are fixedly connected; The conveying mechanism includes a bearing, a rotating shaft sleeved inside the bearing, an elastic component sleeved outside the rotating shaft, a conveying component, a rolling component, a drive shaft fixedly connected to the rotating shaft, a movable component sleeved outside the drive shaft, and multiple friction components connected to the movable component. The conveying component is connected to the elastic component, and the elastic component is connected to the rolling component.

[0009] Preferably, the frame mechanism includes a support, and two mounting platforms are fixedly installed on the top of the support, with pressure regulating components fixedly connected to the other side of each of the two mounting platforms.

[0010] Preferably, the inner wall of the bearing is rotatably connected to the rotating shaft, one end of the rotating shaft is fixedly connected to the drive shaft, the elastic component is connected to the conveying component, the elastic component is sleeved inside the rolling component, the inner wall of the rolling component is fixedly connected to the movable component, the movable component is slidably connected to the outside of the drive shaft, and the outer wall of the movable component is fixedly connected to multiple friction components.

[0011] Preferably, the bearing is snapped into the mounting platform, the conveying assembly is connected to the pressure regulating assembly, the rotating shafts of the multiple conveying assemblies are connected by an external driver, one end of two drive shafts located in the same horizontal direction is fixedly connected, and the other end of the elastic component is fixedly connected to the mounting platform.

[0012] Preferably, the elastic component includes a mounting plate, one side of which is fixedly connected to a plurality of connecting posts, and the other side of which is fixedly connected to a plurality of elastic telescopic rods. The other ends of the plurality of elastic telescopic rods are fixedly installed with the same sealing cam, and the other side of the sealing cam is provided with a plurality of connecting holes. The mounting plate is fixedly connected to the mounting platform via multiple connecting columns.

[0013] Preferably, the conveying assembly includes a plurality of conveying pipes, one end of which is connected to a pressure regulator; The delivery pipe is connected to the sealing roller via a pressure regulator, and the other end of the delivery pipe is connected to the pressure regulating component.

[0014] Preferably, the rolling assembly includes a mounting shell, a sealing groove is provided on one side of the mounting shell, a plurality of flow guide grooves are provided on one side of the inner wall of the sealing groove, a plurality of flow divider grooves are provided inside the mounting shell, an exhaust groove is provided on the other side of the mounting shell, and a retraction groove is simultaneously provided on the side of the mounting shell where the exhaust groove is provided. The sealing cam is rotatably connected in the sealing groove, and the sealing cam is connected to the guide groove through the connecting hole.

[0015] Preferably, the movable component includes a connecting sleeve, the connecting sleeve having multiple mounting slots on its outer side and a limiting slot on its inner side; The outer wall of the connecting sleeve is fixedly connected to the mounting shell, and the connecting sleeve is slidably connected to the outside of the drive shaft through a limiting slot.

[0016] Preferably, a sliding sleeve is fixedly connected in the mounting groove, a piston plate and a sliding rod slide inside the sliding sleeve, the sliding rod and the piston plate are fixedly connected, a spring is fixedly connected to the other side of the piston plate, the other end of the spring is fixedly connected to one side of the inner wall of the sliding sleeve, and a slider is fixedly connected to the other end of the sliding rod. The slider is slidably connected in the mounting groove, the sliding sleeve is connected to the guide groove, and the upper part of the sliding sleeve is connected to the diversion groove through the conduit.

[0017] Preferably, the friction assembly includes a support rod, with a first pin engaged at both ends of the support rod. The support rod is hinged to the conveyor plate via the first pin at the top. The conveyor plate has multiple heat dissipation grooves on its inner side, and a second pin is engaged at the bottom of the conveyor plate. The conveyor plate is hinged to the connecting sleeve via a second pin, and the bottom end of the support rod is hinged to the slider via a first pin.

[0018] Compared with the prior art, the beneficial effects of the present invention are: 1. This invention, through the design of a rolling component, a moving component, and a friction component, utilizes the self-weight of the molybdenum rod to compress the conveyor plate at the contact point during the molybdenum rod conveying process. This causes the conveyor plate to be compressed and flipped downwards. A support rod drives a sliding rod and a piston plate to compress within the sliding sleeve, stably forcing air from inside the sliding sleeve into the exhaust groove of the mounting shell. The exhaust groove outlet precisely corresponds to the position of the conveyor plate that has just disengaged from the molybdenum rod in the rotational direction, allowing for directional air blowing to dissipate heat from the conveyor plate that has just completed the friction conveying operation. This enables the device to remove the accumulated heat generated by the friction between the roller conveyor plate and the molybdenum rod in real time, even under continuous, uninterrupted conveying conditions. No manual shutdown for blowing or natural cooling is required, completely solving the problems of delayed heat dissipation and severe heat accumulation in traditional equipment. This effectively slows down the high-temperature aging and wear rate of the wear-resistant layer on the roller surface, extending the roller's service life. Simultaneously, it avoids continuous localized high temperatures acting on the molybdenum rod surface, ensuring the surface forming quality and smoothness of the finished molybdenum rod, and guaranteeing long-term, continuous, and stable operation of the production line.

[0019] 2. This invention also incorporates elastic and movable components. The device employs a modular roller structure with multiple sets of inclined conveyor plates arranged circumferentially around the drive shaft, possessing dual adaptive adjustment capabilities. During the molybdenum rod conveying process, the conveyor plates can first squeeze the mounting shell to achieve lateral sliding on both sides, completing the first-level spacing adjustment. Then, the conveyor plates themselves flip and press down to complete the second-level flexible adaptation adjustment. This allows for real-time fitting compensation for molybdenum rods of different diameters, with slight outer diameter tolerances, and minor bending deformations. Compared to traditional structures that require manual stopping, locking, and fixing without dynamic adjustment, this device can automatically fine-tune the support spacing and fitting angle according to the actual shape of the molybdenum rod and the contact pressure during conveying. It ensures that multiple sets of conveyor plates sequentially fit the surface of the molybdenum rod throughout the process, continuously providing stable frictional conveying force. This completely solves the problems of insufficient fitting, uneven force, conveying slippage, and poor feeding in traditional equipment, significantly improving the stability and conveying efficiency of continuous molybdenum rod conveying.

[0020] 3. This invention also incorporates a pressure adjustment component, enabling the device to manually and precisely adjust the initial tilt angle of the conveying plate by injecting or extracting air into multiple sets of sliding sleeves. This allows for pre-setting and adapting parameters according to the specifications of the molybdenum rods, accommodating the batch conveying needs of different molybdenum rod models. Even after pre-setting adjustments, the device retains a complete dynamic adaptive adjustment margin, allowing for autonomous adjustment of the working distance between the mounting shell and the conveying plate under varying conveying pressure conditions. This balances the accuracy of manual pre-setting adjustments with dynamic compensation performance, providing a flexible adjustment method and thus making the device more adaptable. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2This is a schematic diagram of the frame mechanism of the present invention; Figure 3 This is a schematic diagram of the conveying mechanism structure of the present invention; Figure 4 This is a schematic diagram of the rolling component structure of the present invention; Figure 5 For the present invention Figure 4 Enlarged structural diagram at point A; Figure 6 This is a schematic diagram of the active component structure of the present invention; Figure 7 This is a schematic diagram of the friction assembly structure of the present invention; Figure 8 This is a schematic cross-sectional view of the rolling component of the present invention.

[0022] Explanation of the labels in the diagram: 1. Frame structure; 2. Conveying mechanism; 11. Bracket; 12. Mounting platform; 13. Pressure regulating assembly; 21. Bearing; 22. Shaft; 23. Elastic component; 24. Conveying component; 25. Rolling component; 26. Drive shaft; 27. Moving component; 28. Friction component; 231. Mounting plate; 232. Connecting post; 233. Flexible telescopic rod; 234. Sealing cam; 235. Connecting hole; 241. Delivery pipe; 242. Pressure regulator; 251. Mounting housing; 252. Flow guide channel; 253. Flow divider channel; 254. Sealing channel; 255. Exhaust channel; 256. Recessed channel; 271. Connecting sleeve; 272. Mounting groove; 273. Sliding sleeve; 274. Piston plate; 275. Sliding rod; 276. Spring; 277. Slider; 278. Limiting groove; 281. Support rod; 282. No. 1 pin; 283. Conveyor plate; 284. Heat dissipation groove; 285. No. 2 pin. Detailed Implementation

[0023] like Figures 1 to 8As shown, the present invention relates to a continuous conveying device for finished molybdenum rods, comprising a frame mechanism 1 and a conveying mechanism 2. The frame mechanism 1 is connected to multiple sets of conveying mechanisms 2, with two conveying mechanisms 2 located in the same horizontal direction being fixedly connected. The conveying mechanism 2 includes a bearing 21, a rotating shaft 22 sleeved within the bearing 21, an elastic component 23 sleeved outside the rotating shaft 22, a conveying component 24, a rolling component 25, a drive shaft 26 fixedly connected to the rotating shaft 22, a movable component 27 sleeved outside the drive shaft 26, and multiple friction components 28 connected to the movable component 27. The conveying component 24 is connected to the elastic component 23, and the elastic component 23 is connected to the rolling component 25. By designing the rolling component 25, the movable component 27, and the friction components 28, during the molybdenum rod conveying process, the device utilizes the self-weight of the molybdenum rod to press the conveying plate 283 at the contact position, causing the conveying plate 283 to be pressed downward and flipped, and then... The support rod 281 drives the slide rod 275 and piston plate 274 to perform compression motion inside the sliding sleeve 273, which stably presses the air inside the sliding sleeve 273 into the exhaust groove 255 of the mounting shell 251. The exhaust port of the exhaust groove 255 precisely corresponds to the position of the previous conveyor plate 283 that has just detached from the molybdenum rod in the rotation direction. It can directionally blow air to cool the conveyor plate 283 that has just completed the friction conveying operation. This allows the device to remove the heat accumulated by the friction between the roller conveyor plate 283 and the molybdenum rod in real time under the condition of continuous non-stop conveying. There is no need for manual shutdown for blowing and natural cooling. It completely solves the problems of slow heat dissipation and serious heat accumulation in traditional equipment, effectively delays the high temperature aging and wear rate of the wear-resistant layer on the roller surface, extends the service life of the roller, and avoids the continuous action of local high temperature on the surface of the molybdenum rod, ensuring the surface forming quality and surface smoothness of the finished molybdenum rod, and ensuring that the production line can operate continuously and stably for a long time.

[0024] In an embodiment of the present invention, the frame mechanism 1 includes a support 11, with two mounting platforms 12 fixedly mounted on the top of the support 11. Pressure regulating components 13 are fixedly connected to the other side of each mounting platform 12. The inner wall of the bearing 21 is rotatably connected to the rotating shaft 22. One end of the rotating shaft 22 is fixedly connected to the drive shaft 26. An elastic component 23 communicates with the conveying component 24. The elastic component 23 is sleeved within the rolling component 25. The inner wall of the rolling component 25 is fixedly connected to the movable component 27. The movable component 27 is slidably connected to the outside of the drive shaft 26. The outer wall of the movable component 27 is fixedly connected to multiple friction components 28. The bearing 21 is snapped into the mounting platform 12. The conveying component 24 communicates with the pressure regulating component 13. The rotating shafts 22 included in the multiple sets of conveying components 24 are connected via an external driver. The opposite ends of two drive shafts 26 located in the same horizontal direction are fixedly connected. The other end of the elastic component 23 is fixedly connected to the mounting platform 12. By designing the elastic component 23 and the movable component 28... Component 27: This device adopts a modular roller structure with multiple sets of inclined conveyor plates 283 arranged around the drive shaft 26. It has dual adaptive adjustment capabilities. During the contact process of molybdenum rod conveying, the conveyor plates 283 can first squeeze the mounting shell 251 to achieve lateral sliding on both sides to complete the first-level spacing adjustment. Then, the conveyor plates 283 can flip down to complete the second-level flexible adaptation adjustment. It can perform real-time fitting compensation for molybdenum rods of different diameters, with slight outer diameter tolerances and slight bending deformation. Compared with the traditional structure that is manually stopped, locked and fixed and cannot be dynamically adjusted, this device can automatically fine-tune the support spacing and fitting angle according to the actual shape of the molybdenum rod and the contact pressure during the conveying process. It ensures that multiple sets of conveyor plates 283 sequentially fit the surface of the molybdenum rod throughout the process, continuously providing stable frictional conveying force. It completely solves the problems of insufficient fitting, uneven force, conveying slippage and poor feeding in traditional equipment, and greatly improves the stability and conveying efficiency of continuous molybdenum rod conveying.

[0025] In an embodiment of the present invention, the elastic component 23 includes a mounting plate 231. A plurality of connecting posts 232 are fixedly connected to one side of the mounting plate 231, and a plurality of elastic telescopic rods 233 are fixedly connected to the other side of the mounting plate 231. The other ends of the plurality of elastic telescopic rods 233 are fixedly mounted with the same sealing chuck 234. A plurality of connecting holes 235 are provided on the other side of the sealing chuck 234. The mounting plate 231 is fixedly connected to the mounting platform 12 via the plurality of connecting posts 232. The conveying component 24 includes a plurality of conveying pipes 241, one end of which is connected to a pressure regulator 242. The conveying pipe 241 is connected to the sealing roller 234 through the pressure regulator 242, and the other end of the conveying pipe 241 is connected to the pressure regulating component 13. This device relies on a purely mechanical linkage structure to realize heat dissipation and ventilation, adaptive bonding and spacing adjustment functions. It relies on the contact pressure of the molybdenum rod during the conveying process as the power source, without the need to add additional electronic equipment such as fans. This not only improves the linkage between the structures of the device, but also significantly reduces the cost of equipment modification, use and later maintenance, effectively reduces the frequency of manual intervention, and is suitable for continuous automated conveying operation of molybdenum rod finished products. By designing the pressure regulating component 13, the device can manually and precisely adjust the initial tilt angle of the conveying plate 283 by injecting or extracting air into multiple sets of sliding sleeves 273. It can pre-set parameters according to the specifications of the molybdenum rods to adapt to the batch conveying needs of different models of molybdenum rods. After the preset adjustment is completed, the device still retains a complete dynamic adaptive adjustment margin. Under the condition of changing conveying pressure, it can still autonomously adjust the working distance between the mounting shell 251 and the conveying plate 283, taking into account both the accuracy of manual preset adjustment and the dynamic compensation performance of operation. The adjustment method is flexible, thus making the device more adaptable.

[0026] In another embodiment of the present invention, the rolling assembly 25 includes a mounting shell 251. A sealing groove 254 is formed on one side of the mounting shell 251, and a plurality of guide grooves 252 are formed on one side of the inner wall of the sealing groove 254. A plurality of diversion grooves 253 are formed inside the mounting shell 251. An exhaust groove 255 is formed on the other side of the mounting shell 251. A relief groove 256 is simultaneously formed on the side of the mounting shell 251 where the exhaust groove 255 is formed. A sealing chuck 234 is rotatably connected in the sealing groove 254. The sealing chuck 234 is connected to the guide groove 252 through a connecting hole 235. The movable assembly 27 includes a connecting sleeve 271. Multiple mounting slots 272 are provided on the outside of the 71, and a limiting slot 278 is provided inside the connecting sleeve 271. The outer wall of the connecting sleeve 271 is fixedly connected to the mounting shell 251. The connecting sleeve 271 is slidably connected to the outside of the drive shaft 26 through the limiting slot 278. By providing a sealing groove 254 on one side of the mounting shell 251, and the sealing groove 254 is adapted to the sealing roller 234, the pressure regulating component 13 can still adjust the gas pressure in the sliding sleeve 273 through the sealing roller 234 when the mounting shell 251 rotates, thereby adjusting the angle of the conveying plate 283 and reducing the difficulty of using the device.

[0027] In another embodiment of the present invention, a sliding sleeve 273 is fixedly connected in the mounting groove 272. A piston plate 274 and a sliding rod 275 slide within the sliding sleeve 273. The sliding rod 275 and the piston plate 274 are fixedly connected. A spring 276 is fixedly connected to the other side of the piston plate 274. The other end of the spring 276 is fixedly connected to one side of the inner wall of the sliding sleeve 273. A slider 277 is fixedly connected to the other end of the sliding rod 275. The slider 277 is slidably connected in the mounting groove 272. The sliding sleeve 273 is connected to the guide groove 252. The upper part of the sliding sleeve 273 is connected to the diversion groove 253 through a conduit. The friction assembly 28 includes a support rod 281, both ends of which are snapped together. There is a first pin 282, and the support rod 281 is hinged to the conveyor plate 283 through the first pin 282 at the top. Multiple heat dissipation grooves 284 are opened on the inner side of the conveyor plate 283. The second pin 285 is snapped into the bottom of the conveyor plate 283. The conveyor plate 283 is hinged to the connecting sleeve 271 through the second pin 285. The bottom end of the support rod 281 is hinged to the slider 277 through the first pin 282. By opening a relief groove 256 on one side of the mounting shell 251, when the conveyor plate 283 is pressed and flipped downward along the second pin 285, the conveyor plate 283 can enter the interior of the mounting shell 251 along the relief groove 256, ensuring the stability of the conveyor plate 283 when it flips. By opening multiple sets of heat dissipation grooves 284 on the inner side of the conveyor plate 283 and using the air discharged by the pressure of the sliding sleeve 273 to accelerate the air flow on the surface of the conveyor plate 283, the heat dissipation efficiency of the conveyor plate 283 is improved, the working temperature of the liner is reduced, and the aging of the high temperature resistant protective layer is delayed, so that the device can be adapted to the conveying condition of the molybdenum rod in the residual heat state after it comes out of the furnace.

[0028] Working principle: This embodiment provides a continuous conveying device for finished molybdenum rods. In use, according to the specifications of the molybdenum rods to be conveyed, air is injected or extracted into the sliding sleeve 273 through the pressure regulating component 13. When the pressure regulating component 13 injects or extracts air into the sealing roller 234 through the conveying pipe 241, the gas will enter the sliding sleeve 273 through the guide groove 252 or be discharged along the guide groove 252, so as to preset the initial tilt angle and tension of the conveying plate 283. When the pressure inside the sliding sleeve 273 is low, the conveying plate 283 is more likely to flip downwards when it contacts the molybdenum rod, thereby increasing the contact area with the molybdenum rod. When the conveying plate 283 flips downwards along the second pin 285, the support rod 281 pushes the slider 277 to slide in the mounting groove 272 through the first pin 282, which in turn drives the sliding rod 275 and the piston plate 274 to compress the air inside the sliding sleeve 273. Since the pressure regulator 242 is difficult to return, a large amount of air will flow along the sliding sleeve 273. The conduit outside 73 enters the diversion groove 253 and then discharges along the diversion groove 253 and the exhaust groove 255. The exhaust end of the diversion groove 253 is designed in front of the previous conveyor plate 283, that is, on the side of the conveyor plate 283 that the molybdenum rod has already contacted. Therefore, the pressurized conveyor plate 283 will use the slide rod 275 and the piston plate 274 to transport the gas through the sliding sleeve 273 to the side plate of the conveyor plate 283 that has just finished contacting the molybdenum rod, thereby blowing air to cool the conveyor plate 283. When the pressure inside the sliding sleeve 273 is high, the conveying plate 283 is not easy to flip downward when it contacts the molybdenum rod. At this time, the molybdenum rod will squeeze the conveying plates 283 on both sides by its own weight, so that the conveying plate 283 drives the mounting shell 251 to slide on the surface of the drive shaft 26 through the connecting sleeve 271. At this time, the elastic telescopic rod 233 is in a retracted state, and the sealing cam 234 is rotatably connected in the sealing groove 254 to ensure the airtightness between the sealing cam 234 and the sealing groove 254 and prevent gas leakage. When the molybdenum rod is continuously conveyed and detaches from the current conveying plate 283, on the one hand, the elastic telescopic rod 233 drives the mounting shell 251 to reset through its own elastic force, and on the other hand, the conveying plate 283 is in a flipped state, and the spring 276 in the sliding sleeve 273 is also in a compressed state. After losing the compression of the molybdenum rod, the spring 276 will also reset through its elastic force, thereby driving the conveying plate 283 to return to the initial tilt angle, thus continuing to convey subsequent molybdenum rods.

[0029] The embodiments disclosed in this invention are preferred embodiments, but are not limited thereto. Those skilled in the art can easily understand the spirit of this invention based on the above embodiments and make different extensions and variations, but as long as they do not depart from the spirit of this invention, they are all within the protection scope of this invention.

Claims

1. A continuous conveying device for finished molybdenum rods, characterized in that, It includes a frame mechanism (1) and a conveying mechanism (2), wherein the frame mechanism (1) is connected to multiple sets of conveying mechanisms (2), and two conveying mechanisms (2) located in the same horizontal direction are fixedly connected; The conveying mechanism (2) includes a bearing (21), a rotating shaft (22) sleeved in the bearing (21), an elastic component (23) sleeved outside the rotating shaft (22), a conveying component (24), a rolling component (25), a drive shaft (26) fixedly connected to the rotating shaft (22), a movable component (27) sleeved outside the drive shaft (26), and a plurality of friction components (28) connected to the movable component (27). The conveying component (24) is connected to the elastic component (23), and the elastic component (23) is connected to the rolling component (25).

2. The continuous conveying equipment for finished molybdenum rods according to claim 1, characterized in that, The frame mechanism (1) includes a support (11), and two mounting platforms (12) are fixedly installed on the top of the support (11). Pressure regulating components (13) are fixedly connected to the other side of the two mounting platforms (12).

3. The continuous conveying equipment for finished molybdenum rods according to claim 2, characterized in that, The inner wall of the bearing (21) is rotatably connected to the rotating shaft (22), one end of the rotating shaft (22) is fixedly connected to the drive shaft (26), the elastic component (23) is connected to the conveying component (24), the elastic component (23) is sleeved inside the rolling component (25), the inner wall of the rolling component (25) is fixedly connected to the movable component (27), the movable component (27) is slidably connected to the outside of the drive shaft (26), and the outer wall of the movable component (27) is fixedly connected to multiple friction components (28).

4. The continuous conveying equipment for finished molybdenum rods according to claim 3, characterized in that, The bearing (21) is snapped into the mounting platform (12), the conveying assembly (24) is connected to the pressure regulating assembly (13), the rotating shafts (22) of the multiple conveying assemblies (24) are connected by external drivers, the two drive shafts (26) located in the same horizontal direction are fixedly connected at opposite ends, and the other end of the elastic component (23) is fixedly connected to the mounting platform (12).

5. The continuous conveying equipment for finished molybdenum rods according to claim 4, characterized in that, The elastic component (23) includes a mounting plate (231), one side of which is fixedly connected to a plurality of connecting posts (232), and the other side of which is fixedly connected to a plurality of elastic telescopic rods (233). The other end of the plurality of elastic telescopic rods (233) is fixedly installed with the same sealing cam (234), and the other side of the sealing cam (234) is provided with a plurality of connecting holes (235). The mounting plate (231) is fixedly connected to the mounting platform (12) via multiple connecting posts (232).

6. The continuous conveying equipment for finished molybdenum rods according to claim 5, characterized in that, The delivery assembly (24) includes a plurality of delivery pipes (241), one end of which is connected to a pressure regulator (242); The delivery pipe (241) is connected to the sealing roller (234) via the pressure regulator (242), and the other end of the delivery pipe (241) is connected to the pressure regulating assembly (13).

7. The continuous conveying equipment for finished molybdenum rods according to claim 6, characterized in that, The rolling assembly (25) includes a mounting shell (251), a sealing groove (254) is provided on one side of the mounting shell (251), a plurality of guide grooves (252) are provided on one side of the inner wall of the sealing groove (254), a plurality of diversion grooves (253) are provided inside the mounting shell (251), an exhaust groove (255) is provided on the other side of the mounting shell (251), and a relief groove (256) is simultaneously provided on the side of the mounting shell (251) where the exhaust groove (255) is provided; The sealing cam (234) is rotatably connected in the sealing groove (254), and the sealing cam (234) is connected to the guide groove (252) through the connecting hole (235).

8. The continuous conveying equipment for finished molybdenum rods according to claim 7, characterized in that, The active component (27) includes a connecting sleeve (271), which has multiple mounting slots (272) on its outside and a limiting slot (278) on its inside. The outer wall of the connecting sleeve (271) is fixedly connected to the mounting shell (251), and the connecting sleeve (271) is slidably connected to the outside of the drive shaft (26) through the limiting slot (278).

9. The continuous conveying equipment for finished molybdenum rods according to claim 8, characterized in that, A sliding sleeve (273) is fixedly connected in the mounting groove (272). A piston plate (274) and a sliding rod (275) slide in the sliding sleeve (273). The sliding rod (275) and the piston plate (274) are fixedly connected. A spring (276) is fixedly connected to the other side of the piston plate (274). The other end of the spring (276) is fixedly connected to one side of the inner wall of the sliding sleeve (273). A slider (277) is fixedly connected to the other end of the sliding rod (275). The slider (277) is slidably connected in the mounting groove (272), the sliding sleeve (273) is connected to the guide groove (252), and the upper part of the sliding sleeve (273) is connected to the diversion groove (253) through the conduit.

10. The continuous conveying equipment for finished molybdenum rods according to claim 9, characterized in that, The friction assembly (28) includes a support rod (281), both ends of which are engaged with a first pin (282). The support rod (281) is hinged to the conveyor plate (283) via the first pin (282) at the top. The conveyor plate (283) has multiple heat dissipation grooves (284) on its inner side, and a second pin (285) is engaged at the bottom of the conveyor plate (283). The conveyor plate (283) is hinged to the connecting sleeve (271) via the second pin (285), and the bottom end of the support rod (281) is hinged to the slider (277) via the first pin (282).

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