Capacitive oven device

Abstract

The invention relates to the technical field of capacitor processing equipment, in particular to capacitor oven equipment which comprises a rack, a circulating device, a heating device and a capacitor tray. A moving space is arranged in the rack; the capacitor tray is used for supporting the capacitor and is movably accommodated in the movable space; the circulating device comprises a translation assembly and at least two groups of lifting assemblies, the two groups of lifting assemblies are arranged side by side and are respectively used for driving the capacitor trays to ascend and descend, and the translation assembly is used for driving the capacitor trays to move between the two adjacent groups of lifting assemblies; the heating device is connected to the rack and located in the moving space, and the heating device is used for heating and baking the capacitor on the capacitor tray. According to the capacitive oven equipment, the circulating device comprising the translation assembly and the at least two sets of lifting assemblies is adopted, and the length of a circulating path can be flexibly adjusted according to actual baking requirements.

Description

Technical Field

[0001] The present application relates to the technical field of capacitor processing equipment, and in particular to a capacitor oven device. Background Art

[0002] Capacitor oven equipment is widely used in the field of electronic component manufacturing. Traditional capacitor oven equipment usually adopts a chain rolling conveying solution. This chain rolling circulation baking method drives the material tray to circulate through the entire chain to achieve the cyclic baking process of the capacitor in the oven.

[0003] However, there are many problems with the existing chain rolling circulation baking. First, the circulation path of the chain rolling type is relatively fixed, and it is difficult to flexibly adjust the circulation path length according to the actual baking requirements. When a longer baking time is required, the requirement can only be met by increasing the overall size of the equipment, which makes the space utilization rate of the equipment low, especially when the site is limited, it is difficult to adapt to the needs of various baking processes. At the same time, the chain rolling circulation baking in the prior art also faces the problem of inconvenient maintenance. When the chain needs to be replaced and maintained, the entire chain needs to be replaced, which has high maintenance costs and maintenance difficulties, and the use effect is not good. Summary of the invention

[0004] The present application provides a capacitor oven device, which is used to solve the problem of poor performance of chain rolling capacitor ovens in the prior art.

[0005] A first aspect of the present application provides a capacitor oven device, comprising:

[0006] The rack has a space for activities inside;

[0007] A capacitor tray, used for supporting the capacitor and movably accommodated in the movable space;

[0008] A circulation device, comprising a translation assembly and at least two groups of lifting assemblies, wherein the two groups of lifting assemblies are arranged side by side and are respectively used to drive the capacitor tray to rise and fall, and the translation assembly is used to drive the capacitor tray to move between two adjacent groups of lifting assemblies; and

[0009] A heating device is connected to the frame and is located in the activity space, and is used to heat and bake the capacitor on the capacitor tray.

[0010] In one possible implementation, the translation assembly includes a translation drive, a translation transmission and a translation frame, the translation drive is connected to the frame, the translation transmission is respectively connected to the translation drive and the translation frame, the translation drive is used to drive the translation frame to move relative to the frame, and the translation frame is used to support the capacitor tray.

[0011] In one possible implementation, the translation frame is provided with a positioning groove and a rack, wherein the positioning groove is provided at the top of the translation frame and is used to accommodate the capacitor tray, the rack is provided on the translation frame, and the translation frame is engaged with the translation transmission member through the rack.

[0012] In one possible implementation, the lifting assembly includes a lifting drive, a lifting transmission and a lifting platform, the lifting drive is connected to the frame, the lifting transmission is respectively connected to the lifting drive and the lifting platform, the lifting platform is slidably connected to the frame and is used to support the capacitor tray.

[0013] In a possible implementation, the lifting transmission member includes a lifting drive gear and a lifting driven gear, the lifting drive gear is meshed with the lifting driven gear, and the lifting drive gear is connected to the output end of the lifting drive member, and the lifting driven gear is drivingly connected to the lead screw of the lifting platform;

[0014] And / or the lifting platform includes a platform body and a platform guide shaft, the platform guide shaft is connected to the platform body, and the platform guide shaft is slidably matched with the frame.

[0015] In one possible implementation, the circulation device also includes a first supporting assembly, which includes a first mounting frame, a first supporting block and a first resetting member, wherein the first mounting frame is connected to the frame, the first supporting block is rotatably connected to the first mounting frame, the first resetting member is used to drive the first supporting block to reset, and the first supporting assembly is configured so that the capacitor tray can move from one side of the first supporting assembly to the other side of the first supporting assembly, and the first supporting block is used to support the bottom of the capacitor tray.

[0016] In one possible implementation, the first mounting frame is provided with a mounting groove, and the first supporting block can be movably accommodated in the mounting groove; a guiding slope is provided on one side of the first supporting block, and the other side of the first supporting block is used to support the capacitor tray.

[0017] In a possible implementation, the circulation device further includes a second supporting assembly, the second supporting assembly includes a second mounting frame, a second supporting block and a guide wheel, the guide wheel is rotatably connected to the second supporting block, the second supporting block is slidably matched with the second mounting frame, and the second supporting block is used to support the bottom of the capacitor tray;

[0018] The circulation device further includes a locking assembly, which includes a locking driving member and a locking driving block. The locking driving block is connected to the output end of the locking driving member, and the locking driving block is used to drive the guide wheel to move relative to the second mounting bracket.

[0019] In a possible implementation manner, the heating device includes a heating pipe and a protective net. The protective net is connected to the machine frame, and the heating pipe is accommodated in the protective net.

[0020] In a possible implementation manner, the machine frame includes a frame structure, a movable housing, and a housing driving assembly. The activity space is located inside the frame structure. The movable housing is movably connected to the frame structure. The housing driving assembly is respectively connected to the frame structure and the movable housing, and the housing driving assembly is used to drive the movable housing to cover or open the activity space.

[0021] Implementing the embodiments of the present application has the following beneficial effects:

[0022] The capacitive oven device of this embodiment can flexibly adjust the length of the circulation path according to actual baking requirements by adopting a circulation device including a translation assembly and at least two sets of lifting assemblies. Since the translation assembly can drive the capacitive tray to move between two adjacent sets of lifting assemblies, and the two sets of lifting assemblies are respectively used to drive the capacitive tray to rise and fall. Compared with the traditional chain rolling type circulation baking scheme, the length of the circulation path of the capacitive tray can be changed by configuring the translation assembly and the lifting assembly according to the requirements of different baking processes, meeting the requirements of a longer baking time without increasing the overall size of the device, thereby improving the space utilization rate of the device and adapting to the requirements of various baking processes.

[0023] The capacitive oven device of this embodiment has significant advantages in terms of maintenance. The translation assembly and the lifting assembly in the circulation device are independent components. During maintenance, maintenance operations can be performed on individual components, without the need to replace the entire chain as in the traditional chain rolling type circulation baking. This greatly reduces the maintenance cost and also reduces the maintenance difficulty, improving the use effect of the device. Description of the Drawings

[0024] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are some embodiments of the present application. For those of ordinary skill in the art, other drawings can be obtained based on these drawings without creative efforts.

[0025] Figure 1 Shows a three-dimensional view of the capacitive oven device in the embodiment of the present invention;

[0026] Figure 2 shows Figure 1 an enlarged view of part A therein;

[0027] Figure 3 shows a schematic internal structure diagram of a capacitive oven device in an embodiment of the present invention;

[0028] Figure 4 shows Figure 3 an enlarged view of part B therein;

[0029] Figure 5 shows a schematic internal structure diagram of a capacitive oven device in an embodiment of the present invention;

[0030] Figure 6 shows a perspective view of a lifting assembly in an embodiment of the present invention;

[0031] Figure 7 shows a perspective view of a first supporting assembly in an embodiment of the present invention;

[0032] Figure 8 shows a partial structure schematic diagram of a capacitive oven device in an embodiment of the present invention;

[0033] Figure 9 shows a perspective view of a capacitive tray in an embodiment of the present invention;

[0034] Reference numerals:

[0035] 10 - Capacitor oven equipment; 100 - Frame; 110 - Frame structure; 120 - Movable housing; 130 - Housing drive assembly; 131 - Housing drive member; 132 - Housing guide shaft; 133 - Housing guide member; 140 - Fixed housing; 200 - Circulation device; 210 - Translation assembly; 211 - Translation drive member; 2121 - Translation drive pulley; 2122 - Translation drive belt; 2123 - Translation driven pulley; 2124 - Translation drive gear; 213 - Translation frame; 2131 - Positioning groove; 2132 - Rack; 220 - Lifting assembly; 221 - Lifting drive member; 2221 - Lifting drive gear; 2222 - Lifting driven gear; 223 - Lifting platform; 2231 - Platform body; 2232 - Platform guide shaft; 230 - First supporting assembly; 231 - First mounting bracket; 2311 - Mounting groove; 232 - First supporting block; 2321 - Guide inclined surface; 233 - First reset member; 240 - Second supporting assembly; 241 - Second mounting bracket; 2411 - Guide groove; 242 - Second supporting block; 243 - Second reset member; 244 - Guide wheel; 250 - Locking assembly; 251 - Locking drive member; 252 - Locking drive block; 2521 - Drive inclined surface; 253 - Locking drive frame; 300 - Heating device; 310 - Heating tube; 320 - Protection net; 400 - Capacitor tray; 410 - Tray body; 420 - Partition frame; 430 - Support bracket; 431 - Bracket body; 4311 - Connection hole; 432 - Adjusting member; 440 - Support frame; 441 - Support groove; 20 - Capacitor. Detailed implementation manners

[0036] To make the objectives, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present application. Apparently, the described embodiments are some, but not all, of the embodiments of the present application. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present application without creative efforts shall fall within the protection scope of the present application.

[0037] Capacitor oven equipment has a wide range of applications in the field of electronic component manufacturing. Traditional capacitor oven equipment usually adopts a chain rolling type conveying solution. This chain rolling type circulating baking method drives the tray to perform a circulating movement through the entire chain to realize the circulating baking process of capacitors in the oven.

[0038] However, there are many problems with the existing chain-rolling cyclic baking. First of all, the cyclic path of the chain-rolling type is relatively fixed, and it is difficult to flexibly adjust the length of the cyclic path according to the actual baking requirements. When a longer baking time is needed, it can only meet the requirements by increasing the overall size of the equipment, which results in a low space utilization rate of the equipment. Especially in the case of limited space, it is difficult to meet the requirements of various baking processes. At the same time, the chain-rolling cyclic baking in the existing technology also faces the problem of inconvenient maintenance. When the chain needs to be replaced and maintained, the whole chain needs to be replaced, with high maintenance costs and great maintenance difficulty, and the use effect is not good.

[0039] To solve the above problems, refer to Figures 1 to 9 As shown, an embodiment of the present invention provides a capacitive oven device 10, which includes a frame 100, a circulation device 200, a heating device 300, and a capacitive tray 400; there is an activity space inside the frame 100; the capacitive tray 400 is used to support the capacitor 20 and is movably placed in the activity space; the circulation device 200 includes a translation component 210 and at least two groups of lifting components 220, where the two groups of lifting components 220 are arranged side by side and are respectively used to drive the capacitive tray 400 to rise and fall, and the translation component 210 is used to drive the capacitive tray 400 to move between two adjacent groups of lifting components 220; the heating device 300 is connected to the frame 100 and is located in the activity space, and the heating device 300 is used to heat and bake the capacitor 20 on the capacitive tray 400.

[0040] The capacitive oven device 10 of this embodiment can flexibly adjust the length of the cyclic path according to the actual baking requirements by adopting the circulation device 200 including the translation component 210 and at least two groups of lifting components 220. Since the translation component 210 can drive the capacitive tray 400 to move between two adjacent groups of lifting components 220, and the two groups of lifting components 220 are respectively used to drive the capacitive tray 400 to rise and fall, compared with the traditional chain-rolling cyclic baking scheme, the length of the cyclic path of the capacitive tray 400 can be changed by configuring the translation component 210 and the lifting components 220 according to the requirements of different baking processes, so as to meet the requirements of a longer baking time without increasing the overall size of the equipment, thereby improving the space utilization rate of the equipment and meeting the requirements of various baking processes.

[0041] The capacitive oven device 10 of this embodiment has significant advantages in terms of maintenance. The translation component 210 and the lifting components 220 in the circulation device 200 are independent components, and maintenance operations can be performed on individual components during maintenance, without the need to replace the entire chain as in the traditional chain-rolling cyclic baking. This greatly reduces the maintenance cost and also reduces the maintenance difficulty, improving the use effect of the equipment.

[0042] In one embodiment, the translation assembly 210 includes a translation driving member 211, a translation transmission member, and a translation frame 213. The translation driving member 211 is connected to the frame 100. The translation transmission member is respectively drivingly connected to the translation driving member 211 and the translation frame 213. The translation driving member 211 is used to drive the translation frame 213 to move relative to the frame 100, and the translation frame 213 is used to support the capacitor tray 400.

[0043] Specifically, the translation driving member 211 can adopt a driving motor or a driving cylinder. Selecting a driving motor can achieve efficient power output and precise control. Its rotational speed and torque are adjustable, making it suitable for a variety of application scenarios. In contrast, a driving cylinder is suitable for applications that require fast and direct linear motion. It has a relatively fast response speed, but its ability to adjust the output force is relatively limited. The translation transmission member can include a belt transmission mechanism or a gear transmission mechanism, etc. The belt transmission mechanism has the advantages of smooth operation and low noise, and is suitable for long-distance power transmission. The gear transmission mechanism has high-efficiency force transmission performance and a high load-bearing capacity, and is more suitable for use when high-precision position control is required.

[0044] During the cyclic conveyance of the capacitor tray 400, the power output by the translation driving member 211 is conducted to the translation frame 213 through the translation transmission member, prompting the translation frame 213 to move relative to the frame 100. This design enables the capacitor tray 400 to move smoothly between the two sets of lifting assemblies, ensuring the continuity and stability of the capacitor during the baking process. In addition, the design of the translation assembly 210 makes the cyclic path of the capacitor tray 400 flexible and can be precisely adjusted according to actual baking requirements.

[0045] This design significantly improves the operating efficiency and adjustment ability of the capacitor oven device 10, providing a more flexible operation method. When it is necessary to increase the baking cycle or adjust the baking program, the moving path of the capacitor tray 400 can be changed by adjusting the settings of the translation driving member 211 to ensure that it can adapt to various baking process requirements.

[0046] In one embodiment, the translation transmission member includes a translation driving pulley 2121, a translation transmission belt 2122, and a translation driven pulley 2123.

[0047] The translation transmission member in this embodiment adopts a belt drive system, making full use of the mechanical transmission principle to achieve the efficient movement of the translation assembly 210. In this embodiment, the translation driving pulley 2121 is connected to the translation driving member 211 and is driven by the power source of the translation driving member 211 to drive the translation transmission belt 2122 to move.

[0048] Specifically, after starting, the translation drive pulley 2121 transmits power to the translation drive belt 2122, which is connected to the translation driven pulley 2123 through sliding friction. Driven by the rotation of the translation driven pulley 2123, the translation frame 213 moves accordingly, thereby realizing the pushing and cyclic conveying of the capacitor tray 400. This belt drive system can effectively reduce mechanical friction losses, improve transmission efficiency, and has a relatively simple structure, facilitating maintenance and replacement.

[0049] The advantages of adopting this technical solution are that the belt drive has excellent shock absorption and wear resistance, can provide a relatively stable transmission effect, thus ensuring the stability of the capacitor tray 400 during movement and avoiding damage to the capacitor caused by vibration. In addition, the belt drive is relatively light in overall weight, which can reduce the self-weight of the equipment, enabling the translation assembly 210 to achieve efficient translation while also reducing the energy consumption and operating costs of the whole machine.

[0050] Specifically, the translation frame 213 is provided with a positioning groove 2131 and a rack 2132. The positioning groove 2131 is provided at the top of the translation frame 213 and is used to accommodate the capacitor tray 400. The rack 2132 is provided on the translation frame 213, and the translation frame 213 meshes with the translation transmission member through the rack 2132.

[0051] In this embodiment, the translation frame 213 is also provided with a rack 2132, and the translation frame 213 meshes with the translation transmission member through the rack 2132. As a linear transmission mechanism, the rack 2132 can effectively convert rotational motion into linear motion, thereby driving the translation frame 213 to move along the frame 100. The design of the rack 2132 enhances the structural stability of the translation frame 213, and at the same time, its meshing relationship with the translation drive gear 2124 provides a more reliable transmission method, improving the efficiency of the overall transmission system.

[0052] Specifically, the translation transmission member further includes a translation drive gear 2124. The meshing of the translation drive gear 2124 with the rack 2132 can form a closed-loop power transmission system. The translation drive gear 2124 drives the rack 2132 to move through the power generated by the translation drive member 211, thereby promoting the smooth movement of the translation frame 213. This structure not only improves the accuracy and efficiency of transmission but also reduces energy loss during transmission.

[0053] Regarding the specific implementation of the rack 2132 and the gear 2124, the rack 2132 can be made of materials with high strength and wear resistance, such as alloy steel, stainless steel, or plastic composite materials, which can effectively extend its service life and are not easily deformed or worn. At the same time, the tooth profile design of the translation drive gear 2124 can choose the involute tooth profile, which can optimize the transmission efficiency of the gear, reduce vibration and noise, and provide a smooth operation effect.

[0054] In one embodiment, the lifting assembly 220 includes a lifting drive member 221, a lifting transmission member, and a lifting platform 223. The lifting drive member 221 is connected to the frame 100 and serves as the power source of the lifting assembly. It can be a motor, a cylinder, or other driving devices. The lifting transmission member is respectively connected to the lifting drive member 221 and the lifting platform 223 in a transmission manner. The lifting platform 223 is slidably connected to the frame 100 and is used to support the capacitor tray 400.

[0055] In this embodiment, the lifting transmission member plays a role in connecting and transmitting power. Its specific design includes forms such as gears or chains. The design of the lifting transmission member aims to achieve the transmission connection between the lifting drive member 221 and the lifting platform 223, thereby completing the lifting action. In the selection of the transmission method, gear transmission has the advantages of high transmission ratio and rapid response, and is suitable for occasions where faster lifting is required; while screw drive has better accuracy and load capacity, and is more suitable for applications that require high stability and accuracy.

[0056] The lifting platform 223 is slidably connected to the frame 100. Its design not only ensures the stability of the platform during the lifting process, but also makes the connection with the frame 100 more flexible. This sliding connection can adopt structures such as slide rails, chutes, or bearings, which can effectively reduce friction and improve the working efficiency of the lifting mechanism. At the same time, the design of the lifting platform 223 is used to support the capacitor tray 400, which directly affects the safety and stability of the capacitor tray during operation.

[0057] Specifically, the lifting transmission member includes a lifting drive gear 2221 and a lifting driven gear 2222. The lifting drive gear 2221 meshes with the lifting driven gear 2222, and the meshing relationship between the two ensures the effective transmission of power. The lifting drive gear 2221 is connected to the output end of the lifting drive member 221, and the lifting driven gear 2222 is in screw transmission connection with the lifting platform 223.

[0058] In this embodiment, the lifting driven gear 2222 is in screw transmission connection with the screw of the lifting platform 223. Through this structure, the meshing and cooperation of the lifting drive gear 2221 and the lifting driven gear 2222 form an efficient power transmission system. Specifically, the lifting platform 223 realizes lifting through the power generated by rotation, so as to accurately and smoothly adjust the height of the capacitor tray 400. This transmission method not only improves the response speed of the lifting system, but also ensures its operation stability.

[0059] In the implementation process, the tooth profile design of the lifting drive gear 2221 and the lifting driven gear 2222 can adopt an involute tooth profile, which can optimize the meshing efficiency and reduce the friction and noise during operation. In addition, in terms of material selection, the gears can be made of high-strength alloy materials to improve their wear resistance and service life. This optimized design ensures the long-term reliability of the transmission system and prevents performance degradation due to wear.

[0060] Furthermore, the design of the lifting transmission member can allow the number of gears 2221 and gears 2222 to be more than one, thereby increasing potential system flexibility and redundancy. For example, multiple driven gears 2222 can be provided to jointly carry the load of the lifting platform 223 to improve the stability and carrying capacity of the overall system. In such a design, the number of gears can be one, two, or more than two, and is not limited here. This will enable the device to maintain stable operation when subjected to large impact forces or loads.

[0061] At the same time, the connection form between the lifting platform 223 and the screw rod can also be flexibly selected, and the screw rod can choose a variety of different thread forms, including but not limited to trapezoidal threads or cylindrical threads, to adapt to different load and lifting speed requirements. This ensures that the lifting platform 223 moves more smoothly and is not prone to jamming or even damage under heavy load conditions.

[0062] Specifically, the lifting platform 223 includes a platform body 2231 and a platform guide shaft 2232 . The platform guide shaft 2232 is connected to the platform body 2231 , and the platform guide shaft 2232 is slidably matched with the frame 100 .

[0063] In this embodiment, the platform guide shaft 2232 is connected to the platform body 2231, and plays a key role in guiding and stabilizing the movement of the lifting platform 223. The design of the guide shaft should ensure that the platform body 2231 can move up and down smoothly during the lifting process to prevent lateral tilting or shaking, thereby improving the stability and safety of the system. In a specific implementation, the guide shaft 2232 can adopt a cylindrical structure, or select some special shape designs, such as a guide shaft with a groove, so as to enhance the matching accuracy with the frame 100.

[0064] The sliding fit design between the platform guide shaft 2232 and the frame 100 is the core to ensure the smooth movement of the lifting platform 223. The sliding fit can be achieved by setting a slide rail, a linear bearing structure, a slide groove or using a linear slide rail system. Such a design can reduce friction and improve the stability and response speed of the lifting process.

[0065] To increase the durability of the system, the material of the platform guiding shaft 2232 should be selected as a material with higher wear resistance, such as alloy steel or stainless steel, and surface treatment can be carried out on its surface, such as nickel plating or hardening treatment, to further improve its anti-wear ability. At the same time, dust-proof devices can be provided on both sides of the guiding shaft 2232 to prevent dust and debris from entering the sliding fit part, thereby reducing the frictional resistance and extending its service life.

[0066] Further, the circulation device 200 further includes a first supporting component 230. The first supporting component 230 includes a first mounting frame 231, a first supporting block 232 and a first resetting member 233. The first mounting frame 231 is connected to the frame 100. The first supporting block 232 is rotatably connected to the first mounting frame 231. The first resetting member 233 is used to drive the first supporting block 232 to reset. The first supporting component 230 is configured such that the capacitor tray 400 can move from one side of the first supporting component 230 to the other side, and the first supporting block 232 is used to support the bottom of the capacitor tray 400.

[0067] Specifically, the design of the first supporting component 230 enables the capacitor tray 400 to move smoothly from one side to the other side. During the movement of the capacitor tray 400, it first contacts the first supporting block 232, causing the first supporting block 232 to rotate, thereby avoiding its path. This design not only effectively avoids interference when the tray has not reached the set position but also reduces potential damage caused by collisions.

[0068] When the capacitor tray 400 moves upward and reaches the predetermined position, the first resetting member 233 is compressed and releases the stored energy to drive the first supporting block 232 to return to its original position. In this way, the first supporting block 232 can stably support the bottom of the capacitor tray 400, reducing the possible shaking and instability during the operation of the capacitor tray 400, and at the same time realizing the limiting function of the first supporting component 230. This limiting function not only improves the safety of the equipment but also provides the necessary support for subsequent operations.

[0069] In terms of specific implementation, the first resetting member 233 can adopt various forms, such as springs, cylinders or hydraulic components, etc. When using a spring as the first resetting member 233, it can rebound quickly and reduce the response time, which is suitable for applications that require quick conversion; while cylinders or hydraulic components can achieve a greater resetting force and are suitable for heavier capacitor trays 400. It is necessary to select according to the weight and movement frequency of the capacitor tray 400 in actual applications to optimize the overall performance of the equipment.

[0070] The material selection of the first supporting block 232 is also crucial. Usually, high-strength materials such as cast iron or composite materials are selected to ensure that it will not deform during the supporting process and can withstand the gravity and impact force from the capacitor tray 400. Setting the surface texture of the first supporting block 232 can provide better friction, avoid the sliding of the capacitor tray 400 during the supporting process, and thus improve the safety and stability of the overall operation.

[0071] In this embodiment, the first mounting bracket 231 is provided with a mounting groove 2311, and this groove design enables the first supporting block 232 to be movably received therein. By adopting this groove design, the overall structure of the first supporting assembly 230 becomes more compact, reducing the external space occupation and facilitating integration into various application environments. This design not only simplifies the structure but also improves the overall stability and durability of the system.

[0072] In addition, a guiding inclined surface 2321 is provided on one side of the first supporting block 232, and the design of this guiding inclined surface provides effective guidance for the contact between the capacitor tray 400 and the first supporting block 232. When the capacitor tray 400 moves upward and contacts the first supporting block 232, the guiding inclined surface 2321 can guide the capacitor tray 400 to make reasonable relative movement at the initial stage of contact, which is crucial for effective avoidance and smooth docking. Through such a design, the direct impact force between the capacitor tray 400 and the supporting block 232 can be reduced, thereby reducing the possible wear and damage to the equipment.

[0073] The guiding inclined surface 2321 effectively reduces the sliding friction by optimizing the contact angle. In practical applications, the reduction of sliding friction not only helps to extend the service life of the material but also improves the flexibility and stability of the operation. The instability of the capacitor tray 400 during movement is reduced, which can improve the working efficiency and reduce the downtime caused by equipment failures. By designing the guiding inclined surface 2321 more reasonably, the performance of the entire system can be further improved to ensure the precise positioning of the capacitor tray 400 during operation.

[0074] In addition, during specific implementation, the material selection of the first supporting block 232 is equally important for its strength and durability. High-strength alloy materials or engineering plastics can be used. These materials can withstand a certain load without affecting the effectiveness of the guiding inclined surface due to wear. Relatively light materials such as engineering plastics can effectively reduce the weight of the entire device, which is beneficial for efficient application in occasions where flexible position adjustment is required.

[0075] Furthermore, the second supporting component 240 in the circulating device 200 is an important unit for realizing the functions of the device, including a second mounting bracket 241, a second supporting block 242, and a guide wheel 244. The guide wheel 244 is rotationally connected to the second supporting block 242, thereby allowing the guide wheel 244 to flexibly adjust its position during movement. At the same time, the second supporting block 242 is engaged with the second mounting bracket 241 in a sliding fit manner to ensure that it can stably support the bottom of the capacitor tray 400 and move flexibly when needed.

[0076] In this structure, the key design point of the second supporting block 242 is that it can effectively support the capacitor tray 400 to ensure the overall stability. Through the sliding fit between the second supporting block 242 and the second mounting bracket 241, smooth up and down movement can be achieved. This design enables the capacitor tray 400 to smoothly transition from one side of the second supporting component 240 to the other side. In practical applications, the second supporting component 240 not only improves the operation efficiency of the entire circulating device but also ensures the safety of heavy-duty or precision equipment.

[0077] In addition, the introduction of the locking component 250 further enhances the automatic control function of the circulating device 200. The locking component 250 consists of a locking driving member 251 and a locking driving block 252. The locking driving block 252 is connected to the output end of the locking driving member 251, aiming to control the movement of the guide wheel 244 by driving the operation of the locking block. This design can flexibly adjust the relative position between the second supporting component 240 and the capacitor tray 400 according to actual needs, so as to still maintain efficient and safe operation in an unattended operation scenario.

[0078] By setting the cooperation between the locking driving block 252 and the guide wheel 244, the friction generated when they interact with each other can be effectively reduced. The advantage of this design is to improve the response efficiency between the two and reduce the wear during long-term use, further enhancing the durability of the system. In addition, due to the reduction of friction, the power consumption can also be reduced, realizing a more economical operation mode.

[0079] In terms of specific implementation, the locking driving member 251 can select an electric drive system or a pneumatic drive system. The electric drive system has a fast response speed and high control accuracy, while the pneumatic drive system is suitable for occasions that require high-frequency operation. The specific selection can be based on actual working requirements. Both of these two solutions need to consider factors such as cost, reliability, and operating environment during design.

[0080] The material selection of the guide wheel 244 is also very important. High-strength composite materials are usually selected to ensure that they will not deform or damage under load and frequent movement, and have good wear resistance. The surface configuration of the guide wheel 244 can be smooth or with appropriate textures to increase friction and ensure smooth operation under different working conditions.

[0081] In one embodiment, the second mounting frame 241 is provided with a guide groove 2411, and a sliding fit is formed between the second supporting block 242 and the guide groove 2411. This design optimizes space utilization, making the overall structure of the second supporting assembly 240 more compact, thereby effectively reducing the volume and weight of the device, and facilitating its application in various restricted working environments.

[0082] The guide groove 2411 is designed to provide a clear motion track for the second support block 242. When the second support block 242 slides in the guide groove 2411, the cooperation between the two can reduce friction and ensure smooth movement of the support block, thereby improving the response speed and operational flexibility of the entire circulation device 200. This function is particularly important in practical applications, especially when the position of the capacitor tray 400 needs to be quickly replaced or adjusted, the guide groove 2411 can ensure stability and accuracy during operation.

[0083] The material selection of the second support block 242 also affects its sliding performance in the guide groove 2411. It is preferred to use materials such as high-strength alloys or engineering plastics, which have a low friction coefficient and good wear resistance, can maintain an ideal working state during long-term use, and reduce performance degradation caused by wear.

[0084] Furthermore, the second supporting assembly 240 further includes a second reset member 243, which is used to improve the automation of the system and ensure efficient and accurate reset operation during operation. The second reset member 243 is connected to the second supporting block 242 and the second mounting frame 241 respectively. This connection design cleverly ensures the linkage between the two and helps to achieve flexible movement of the supporting block.

[0085] Specifically, when the driving action of the locking assembly 250 is removed, the second reset member 243 will actively drive the second support block 242 to reset to a predetermined position according to its design principle, so that it avoids the capacitor tray 400. This process usually depends on the functional mechanism of the reset member, for example, a spring, a cylinder or other forms of reset mechanism can be selected. Through this mechanism, the second support block 242 can smoothly return to the position of avoiding the capacitor tray 400 in a short time, thereby effectively avoiding potential collision risks.

[0086] In the specific implementation, the second reset member 243 can adopt a variety of structural forms. For example, if a spring is selected as the reset member, it can be a compression spring or a tension spring. Its structural feature is that it has a certain elastic deformation ability and can quickly return to its original state. The advantages are saving space and having a high response speed. In addition, a cylinder is also a commonly used reset member, which can achieve precise displacement control according to different drive signals and is suitable for occasions with larger loads. No matter which form is adopted, the second reset member 243 can ensure that the second supporting block 242 completes the reset operation quickly and reliably.

[0087] Specifically, in the design of the locking drive block 252, the setting of the drive inclined surface 2521 has important technical significance. Through the rolling contact with the guide wheel 244, the drive inclined surface 2521 effectively reduces the impact force between the locking drive block 252 and the guide wheel 244, thus optimizing the operating performance of the overall system.

[0088] Specifically, the angle and shape of the drive inclined surface 2521 can be designed according to actual needs to ensure smooth contact with the guide wheel 244 during the driving process. This contact method can effectively disperse the force acting between the two. Coupled with the inclination angle of the inclined surface, it can convert the kinetic energy into a component along the inclined surface direction, thus avoiding sudden impacts or vibrations. This has a positive effect on extending the service life of the equipment and reducing maintenance costs.

[0089] It is also worth noting that the design of the drive inclined surface 2521 should not be limited to a single shape. When implementing specifically, multiple drive inclined surfaces can be considered to enhance the stability and reliability of the rolling contact. Specifically, the number of these inclined surfaces can be one, two or more than two, and there is no unique limitation here. After setting multiple drive inclined surfaces, not only can the load be further dispersed, but also the overall stability of the contact surface can be improved when the load is uneven, thus effectively reducing the wear caused by impact.

[0090] In addition, the angle of the drive inclined surface 2521 should be within a reasonable range to ensure good contact effect in different operating states. Generally speaking, the inclination angle of the inclined surface can be set between 10° and 30°, which is determined according to actual design needs and there is no unique limitation here. If the angle is too small, it may lead to reduced drive efficiency and increased frictional losses; on the contrary, if the angle is too large, it may cause an unstable motion state.

[0091] In one embodiment, the number of locking drive blocks 252 is multiple. Specifically, these locking drive blocks 252 are installed on the locking drive frame 253 in a side-by-side or combined manner, enabling the locking drive blocks 252 to flexibly connect and cooperate with various devices. The advantage of this design is that through the collaborative work of multiple locking drive blocks 252, the stability and control accuracy of the system can be improved.

[0092] The locking assembly 250 further includes a locking drive member 251, and the locking drive member 251 is connected to the locking drive frame 253, thus forming a complete locking drive system. The design of this system allows for the unified control of the locking drive blocks 252 through the locking drive member 251, achieving the efficient management of multiple guide wheels 244. Through this design, the user can adjust multiple locking drive blocks 252 simultaneously with only a single control signal, thereby simplifying the operation process and improving the operation efficiency.

[0093] Multiple locking drive blocks 252 respectively cooperate with the guide wheels 244 of multiple second supporting components 240, and can achieve precise control for different supporting components 240 within one working cycle. According to the implementation requirements, the number of locking drive blocks 252 can be two, three or more. There is no unique limitation here, and the specific number selection should be optimized based on the design requirements and load-bearing capacity of the actual project. This design can not only make the locking states of the respective guide wheels 244 consistent, but also adjust their stability and response speed as needed.

[0094] Through the design of controlling multiple second supporting components 240 by a set of locking assemblies 250, the operation flexibility and the adaptability of the system are improved. This design is particularly effective in multi-system collaborative work or complex scenarios. Even under different load conditions, multiple locking drive blocks 252 can still maintain efficient cooperation to ensure the precise control of the guide wheels 244. In addition, if a certain locking drive block 252 fails, the remaining locking drive blocks 252 can still work normally, ensuring the reliability of the overall system.

[0095] Specifically, the heating device 300 includes a heating tube 310 and a protective net 320. The protective net 320 is connected to the frame 100, and the heating tube 310 is accommodated within the protective net 320. Specifically, the main function of the heating tube 310 is to generate the required heat to meet the heating requirements of the device or system. In this design, the heating tube 310 is accommodated within the protective net 320. This installation method can not only effectively isolate the high temperature generated by the heating tube 310, but also avoid accidental injuries or equipment damage caused by contact.

[0096] The material and structure of the heating tube 310 should be selected to be able to withstand high temperatures and have good thermal conductivity, such as stainless steel or high-temperature alloy materials. This material selection ensures that the heating tube 310 can generate heat quickly during operation and maintain a stable working state. The protective net 320 is usually made of heat-resistant metal materials, such as aluminum alloy or carbon steel, which have high strength and stiffness, can effectively resist external physical impacts, and at the same time provide good ventilation performance to avoid excessive heat accumulation.

[0097] In terms of specific implementation, the heating tube 310 of the heating device 300 can be designed in various forms, such as bent tubes, straight tubes or annular tubes, etc. Different-shaped heating tubes 310 can be selected according to the heat transfer requirements of actual applications. When a larger surface area is needed to improve the heating efficiency, the design of the annular tube will be a preferred solution because it can better increase the contact surface with the medium and effectively improve the heat transfer efficiency. In addition, the power and voltage of the heating tube 310 can be flexibly selected according to the heating requirements of the equipment to ensure good operation in different environments.

[0098] The form of the protective net 320 can also be diversified. For example, the protective net 320 can use a mesh structure with different pore sizes to ensure good hot air circulation while preventing solid objects from entering, thereby protecting the safety of the heating tube 310. Such a design not only effectively avoids risks caused by external factors but also ensures the best heat dissipation effect of the heating tube 310 during operation.

[0099] Specifically, the frame 100 includes a frame structure 110, a movable housing 120, and a housing drive assembly 130. The frame structure 110 serves as the basic support part of the entire frame, providing a solid foundation to facilitate the effective and stable movement of the movable housing 120 inside it. The activity space is located inside the frame structure 110. The movable housing 120 is movably connected to the frame structure 110. The housing drive assembly 130 is respectively connected to the frame structure 110 and the movable housing 120, and the housing drive assembly 130 is used to drive the movable housing 120 to cover or open the activity space.

[0100] The housing drive assembly 130 is the core drive component in the frame 100, and its design purpose is to drive the movement of the movable housing 120 to cover or open the activity space. Specifically, the housing drive assembly 130 can adopt various drive methods such as electric motors, hydraulic or pneumatic systems, and can provide the required power to achieve fast and stable operation. In this design, the housing drive assembly 130 is not only connected to the frame structure 110 but also connected to the movable housing 120 to ensure its two-way action. In this way, users can flexibly manage the closing or opening of the movable housing 120 by controlling the working state of the housing drive assembly 130, thus facilitating the access to items in the activity space.

[0101] In this embodiment, the frame 100 further includes a fixed housing 140, which covers the upper opening of the activity space. When the housing driving assembly 130 drives the movable housing 120 to close downward, the combination of the movable housing 120 and the fixed housing 140 forms a sealed structure, thus effectively closing the upper opening of the activity space. This design not only ensures the safety of the capacitor 20 in the activity space, but also prevents interference from the external environment during heating or other processing operations.

[0102] It should be noted that the design of the fixed housing 140 needs to consider its sealing performance and compatibility with the movable housing 120. Sealing strips or high-temperature resistant materials can be used to ensure its lasting sealing performance at different working temperatures. At the same time, the installation position of the fixed housing 140 should also ensure a tight combination with the movable housing 120, so as to effectively resist external impacts or contamination in the closed state.

[0103] When the housing driving assembly 130 drives the movable housing 120 to open, the operation flexibility of the device is further improved. The external capacitor 20 can then be smoothly moved onto the capacitor tray 400 through a transfer mechanism such as a manipulator or a mechanical gripper. This transfer mechanism may use a robotic arm controlled by a servo motor, which can accurately position the capacitor 20 on the capacitor tray 400, achieving fast and efficient material handling. In this way, the automation level of the entire system is significantly improved, while reducing the need for manual intervention and lowering the operation risk.

[0104] Specifically, the housing driving assembly 130 is a key component in the frame 100, and its design purpose is to achieve precise control of the movable housing 120 in order to flexibly close or open the activity space. Specifically, the housing driving assembly 130 includes a housing driving member 131, a housing guiding shaft 132, and a housing guiding member 133. These three cooperate with each other to jointly complete the functions of driving and guiding.

[0105] The housing driving member 131 can adopt various forms such as an electric motor, a pneumatic cylinder, or a hydraulic cylinder to drive the movement of the movable housing 120. When an electric motor is selected as the driving member, the speed of the electric motor can be adjusted by a frequency converter to achieve smooth opening and closing of the movable housing 120, avoiding equipment damage or affecting operation safety due to sudden movement. If pneumatic or hydraulic drive is selected, greater driving force can be provided, which is suitable for larger or heavier movable housings 120. All these different driving methods contribute to improving the applicability and flexibility of the housing driving assembly 130.

[0106] The housing guide shaft 132 is used to ensure the stable movement trajectory of the movable housing 120 and avoid jamming or wear caused by deviation. The material of this guide shaft should be selected as wear-resistant and having good lubrication characteristics, such as stainless steel or engineering plastics, to extend its service life and reduce the maintenance frequency. In addition, the diameter and length of the guide shaft 132 should be optimized according to the size and weight of the movable housing 120 to ensure that it can bear the corresponding load during movement and maintain smooth motion.

[0107] The housing guide 133 is responsible for positioning and guiding the movable housing 120, and bearings, slide rails or other guiding structures can be used. The guide 133 can not only reduce wear, but also improve the movement accuracy and stability of the movable housing 120. In addition, using a front-sealed structure can prevent dust and debris from entering the guiding system, further improving its reliability and safety.

[0108] In one embodiment, the capacitor tray 400 includes a tray body 410, a partition frame 420 and a support bracket 430. The tray body 410 is the basic structural part of the entire capacitor tray 400, and it can be made of materials with certain strength and stiffness, such as engineering plastics or light alloys. This material selection can ensure that the tray body 410 is not easily deformed when bearing the capacitors 20, and at the same time helps to reduce the weight of the entire capacitor tray 400, facilitating handling and installation.

[0109] The partition frame 420 is arranged on the tray body 410 and forms spaces at intervals for accommodating the capacitors 20. Specifically, the partition frame 420 can be connected to the tray body 410 by means of bonding, snap connection or screw fixation. The design of the partition frame 420 enables each capacitor 20 to be placed separately in a space divided by the partition frame 420, which can effectively prevent the capacitors 20 from colliding with each other and causing damage. Moreover, by adjusting the position of the partition frame 420 on the tray body 410, the size of each space can be flexibly changed to adapt to the placement requirements of capacitors 20 of different sizes. For example, when larger-sized capacitors 20 need to be placed, the distance between two adjacent partition frames 420 can be set larger; when smaller-sized capacitors 20 are placed, the distance between adjacent partition frames 420 can be set smaller.

[0110] The support bracket 430 is arranged at the bottom of the capacitor 20 and is used to support the capacitor 20. The support bracket 430 can be made of elastic materials, such as silicone or sponge. Such a design can absorb part of the impact energy through the elastic deformation of the support bracket 430 when the capacitor 20 is subjected to external impact, thereby playing a buffering and protective role for the capacitor 20. In addition, the support bracket 430 can also have certain anti-slip performance to prevent the capacitor 20 from sliding and shifting on the capacitor tray 400.

[0111] In this embodiment, the disk body 410 provides basic support. The partition frame 420 forms independent spaces through reasonable layout to avoid interference between the capacitors 20, while the carrier bracket 430 provides stable support and protection for the capacitors 20 from the bottom. The three work together to jointly construct a capacitor tray 400 that can safely and stably accommodate and protect the capacitors 20. For example, when the capacitor tray 400 encounters bumps during transportation, the partition frame 420 limits the lateral movement range of the capacitors 20, the carrier bracket 430 buffers the impact force from below, and the disk body 410 ensures the stability of the overall structure, thereby effectively reducing the risk of damage to the capacitors 20.

[0112] In one embodiment, the carrier bracket 430, as a key component of the capacitor tray 400, further includes a bracket body 431 and an adjusting member 432. The bracket body 431, as the main structure for supporting the capacitor 20, not only needs to have sufficient mechanical strength but also needs to consider its cooperation with the partition frame 420 and the disk body 410.

[0113] For this purpose, connection holes 4311 are formed on the bracket body 431. The design of the connection holes 4311 is intended to form a tight fit with the partition frame 420, thereby enhancing the overall strength of the carrier bracket 430 through structural connection. Specifically, the partition frame 420 passes through the connection holes 4311. Through the cooperation of the connection holes 4311 and the partition frame 420, not only can the stable installation of the bracket body 431 be achieved, but also the mechanical stress generated by the capacitors 20 during operation can be effectively dispersed, thereby improving the compressive and vibration resistance performance of the carrier bracket 430.

[0114] The adjusting member 432, as an important part of the carrier bracket 430, is designed to achieve flexible adjustment of the height of the bracket body 431. By cooperating the adjusting member 432 with the bracket body 431 and the disk body 410 respectively, the user can adjust the position of the adjusting member 432 according to actual needs, thereby changing the height of the bracket body 431. This design enables the capacitor tray 400 to adapt to different specifications of the capacitors 20, improving the versatility and adaptability of the device. For example, for capacitors 20 with a larger height, the user can increase the height of the bracket body 431 by adjusting the adjusting member 432 upward to ensure that the capacitors 20 can be stably supported; while for capacitors 20 with a smaller height, the height of the bracket body 431 can be reduced by adjusting the adjusting member 432 downward, thereby avoiding unnecessary space waste.

[0115] In the actual implementation process, the adjusting member 432 can adopt various forms, such as a threaded adjusting member, a snap - type adjusting member, or a sliding - type adjusting member, etc. The threaded adjusting member realizes precise height adjustment by rotation and is suitable for scenarios with high requirements for height; the snap - type adjusting member realizes rapid height adjustment by increasing or decreasing the snaps and is suitable for scenarios that require frequent adjustment; the sliding - type adjusting member realizes continuous height adjustment by sliding and is suitable for scenarios with a large height adjustment range. The specific form of the adjusting member 432 to be adopted can be selected according to the actual design requirements and is not uniquely limited herein.

[0116] In one embodiment, the capacitor tray 400, as a key structure for carrying and fixing multiple capacitors 20, further includes a support frame 440 in addition to the tray body 410, the partition frame 420, and the carrier bracket 430. The support frame 440 is arranged outside the tray body 410, and its main function is to provide structural connection and support for the vertically stacked capacitor trays 400 to ensure the overall stability and safety after stacking.

[0117] Specifically, the design of the support frame 440 takes into account the connection requirements of multiple capacitor trays 400 when stacked vertically. By arranging the support frame 440 outside the tray body 410, two vertically stacked capacitor trays 400 can be firmly connected through the support frame 440. This connection method can not only effectively disperse the mechanical stress during stacking but also avoid the direct contact between the partition frames 420 caused by stacking, thereby preventing adjacent capacitor trays 400 from squeezing or damaging the capacitors 20.

[0118] In the actual implementation process, the support frame 440 can adopt various forms, such as snap - type connection, threaded connection, or plug - in connection, etc. The snap - type connection realizes the convenience of stacking through the quick locking of snaps and is suitable for scenarios that require frequent disassembly and assembly; the threaded connection realizes the firmness of the connection through the tightening of threads and is suitable for scenarios with high requirements for connection strength; the plug - in connection realizes the rapidity and flexibility of the connection through the cooperation of plug - in parts and is suitable for scenarios with high requirements for connection speed and precision. The specific form of the support frame 440 to be adopted can be selected according to the actual design requirements and is not uniquely limited herein.

[0119] Through the setting of the support frame 440, the capacitor tray 400 can not only maintain the overall structural stability when stacked vertically but also, through the spacing effect of the support frame 440, avoid unnecessary squeezing of the capacitors 20 by adjacent capacitor trays 400. This design provides convenience for the flexible use of the device in different application scenarios while ensuring the overall safety and stability of the system.

[0120] In one embodiment, the support frame 440 is provided with a support groove 441, and the design of the support groove 441 is intended to provide a positioning function for the connection of two adjacent capacitor trays 400, thereby improving the stability of the overall structure.

[0121] Specifically, as a key structural feature of the support frame 440, the shape and size of the support groove 441 can be adjusted according to actual design requirements to ensure precise fit with the support frame 440 of another group of capacitor trays 400. When two adjacent capacitor trays 400 are connected, the support groove 441 can be engaged with the support frame 440 of another group of capacitor trays 400, thereby achieving accurate positioning of the two connected support frames 440.

[0122] By providing the support groove 441, it is not only possible to effectively prevent the capacitor trays 400 from being misaligned or shifted during stacking, but also to further enhance the overall stability of the stacked structure. In actual implementation, the support groove 441 can be designed in various forms, such as a rectangular groove, a trapezoidal groove, or an arc groove. The rectangular groove is suitable for scenarios with high positioning accuracy requirements and can achieve a stable engagement of the support frame 440; the trapezoidal groove utilizes its inclined plane design for easy quick alignment and installation of the support frame 440 and is suitable for scenarios that require frequent disassembly and assembly; the arc groove can better disperse the mechanical stress during stacking due to its circular arc shape and is suitable for scenarios with high requirements for structural strength. The specific form of the support groove 441 to be adopted can be selected according to actual design requirements and is not uniquely limited here.

[0123] In addition, the depth and width of the support groove 441 can also be adjusted according to actual needs. For example, the depth of the support groove 441 can be designed to be 5 mm, 8 mm, or 10 mm to adapt to different sizes of the support frame 440; the width of the support groove 441 can be designed to be 6 mm, 9 mm, or 12 mm to ensure a tight fit with the support frame 440. By reasonably designing the size and shape of the support groove 441, the stability and reliability of the capacitor trays 400 during stacking can be further improved.

[0124] In actual engineering applications, the design of the support groove 441 also needs to consider its coordinated operation with the support frame 440, the tray body 410, the partition frame 420, and the support bracket 430 to ensure the coordination and consistency among the components during stacking. Through the provision of the support groove 441, the capacitor trays 400 can achieve higher positioning accuracy and better mechanical performance during vertical stacking, thereby meeting the diverse requirements in different application scenarios. At the same time, the presence of the support groove 441 also helps to simplify the installation and maintenance process of the capacitor trays 400, providing greater convenience for users.

[0125] In the description of the embodiments of the present application, it should be noted that the orientation or positional relationship indicated by the terms "center", "longitudinal", "transverse", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings. It is only for the convenience of describing the embodiments of the present application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus should not be construed as a limitation to the embodiments of the present application. In addition, the terms "first", "second", and "third" are only used for descriptive purposes and should not be construed as indicating or implying relative importance.

[0126] In the description of the embodiments of the present application, it should be noted that unless otherwise clearly specified and limited, the terms "connected" and "connected to" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium. For those of ordinary skill in the art, the specific meanings of the above terms in the embodiments of the present application can be understood according to specific circumstances.

[0127] In the embodiments of the present application, unless otherwise clearly specified and limited, the first feature being "on" or "under" the second feature can be that the first and second features are in direct contact, or the first and second features are in indirect contact through an intermediate medium. Moreover, the first feature being "above", "over" and "on top of" the second feature can be that the first feature is directly above or obliquely above the second feature, or merely indicates that the first feature has a higher horizontal height than the second feature. The first feature being "under", "beneath" and "underneath" the second feature can be that the first feature is directly below or obliquely below the second feature, or merely indicates that the first feature has a lower horizontal height than the second feature.

[0128] In the description of this specification, the description with reference to terms such as "one embodiment", "some embodiments", "example", "specific example", or "some examples" means that the specific features, structures, materials, or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the embodiments of the present application. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials, or characteristics described can be combined in a suitable manner in any one or more embodiments or examples. In addition, without contradiction, those skilled in the art can combine and combine the different embodiments or examples described in this specification and the features of different embodiments or examples.

[0129] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present application, rather than limiting them; although the present application has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements on some of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present application.

Claims

1. A capacitor oven device, characterized in that: include: The rack has a space for activities inside; A capacitor tray, used for supporting the capacitor and movably accommodated in the movable space; The circulation device comprises a translation assembly and at least two groups of lifting assemblies, wherein the two groups of lifting assemblies are arranged side by side and are respectively used to drive the capacitor tray to rise and fall, and the translation assembly is used to drive the capacitor tray to move between two adjacent groups of lifting assemblies; as well as A heating device is connected to the frame and is located in the activity space, and is used to heat and bake the capacitor on the capacitor tray.

2. The capacitor oven device according to claim 1, characterized in that: The translation assembly includes a translation drive, a translation transmission and a translation frame, the translation drive is connected to the frame, the translation transmission is respectively connected to the translation drive and the translation frame, the translation drive is used to drive the translation frame to move relative to the frame, and the translation frame is used to support the capacitor tray.

3. The capacitor oven device according to claim 2, characterized in that: The translation frame is provided with a positioning groove and a rack. The positioning groove is arranged at the top of the translation frame and is used to accommodate the capacitor tray. The rack is arranged on the translation frame and the translation frame is meshed with the translation transmission member through the rack.

4. The capacitor oven device according to claim 1, characterized in that: The lifting assembly includes a lifting drive, a lifting transmission and a lifting platform. The lifting drive is connected to the frame. The lifting transmission is respectively connected to the lifting drive and the lifting platform. The lifting platform is slidably connected to the frame and is used to support the capacitor tray.

5. The capacitor oven device according to claim 4, characterized in that: The lifting transmission member includes a lifting driving gear and a lifting driven gear, the lifting driving gear is meshed with the lifting driven gear, and the lifting driving gear is connected to the output end of the lifting driving member, and the lifting driven gear is drivingly connected to the screw rod of the lifting platform; And / or the lifting platform includes a platform body and a platform guide shaft, the platform guide shaft is connected to the platform body, and the platform guide shaft is slidably matched with the frame.

6. The capacitor oven device according to any one of claims 1 to 5, characterized in that: The circulation device also includes a first supporting assembly, which includes a first mounting frame, a first supporting block and a first resetting member, wherein the first mounting frame is connected to the frame, the first supporting block is rotatably connected to the first mounting frame, the first resetting member is used to drive the first supporting block to reset, and the first supporting assembly is configured so that the capacitor tray can move from one side of the first supporting assembly to the other side of the first supporting assembly, and the first supporting block is used to support the bottom of the capacitor tray.

7. The capacitor oven device according to claim 6, characterized in that: The first mounting frame is provided with a mounting groove, and the first supporting block can be movably accommodated in the mounting groove; a guiding inclined surface is provided on one side of the first supporting block, and the other side of the first supporting block is used to support the capacitor tray.

8. The capacitor oven device according to claim 6, characterized in that: The circulation device further includes a second supporting assembly, which includes a second mounting frame, a second supporting block and a guide wheel, wherein the guide wheel is rotatably connected to the second supporting block, the second supporting block is slidably matched with the second mounting frame, and the second supporting block is used to support the bottom of the capacitor tray; The circulation device also includes a locking assembly, which includes a locking drive member and a locking drive block. The locking drive block is connected to the output end of the locking drive member, and the locking drive block is used to drive the guide wheel to move relative to the second mounting frame.

9. The capacitor oven device according to claim 1, characterized in that: The heating device comprises a heating tube and a protection net, wherein the protection net is connected to the frame and the heating tube is accommodated in the protection net.

10. The capacitor oven device according to claim 1, characterized in that: The frame includes a frame structure, a movable cover and a cover drive assembly. The movable space is located on the inner side of the frame structure. The movable cover is movably connected to the frame structure. The cover drive assembly is respectively connected to the frame structure and the movable cover. The cover drive assembly is used to drive the movable cover to cover or open the movable space.

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