Vibration drying device based on oven

Abstract

The invention relates to the technical field of cleaning and drying, in particular to an oven-based vibration drying device which comprises an oven body and a cleaning mesh belt, a vibration mechanism is further arranged in the oven body, and the vibration mechanism abuts against the cleaning mesh belt; the cleaning mesh belt is further provided with a plurality of carrying mesh plates and a swing mechanism, and in the advancing process of the swing mechanism, the carrying mesh plates are automatically driven to swing under the cooperation of a rotary disc gear and a rack. By arranging the vibration motor, a large amount of water attached to the surface of a cleaned object can be vibrated off, the set temperature in the cleaning oven is reduced, and then the energy consumption cost is reduced; through the swing mechanism which automatically operates in the advancing process, the object carrying net plate can be driven to swing in the operation process of the cleaning net belt, water attached to the surface of a cleaned object is spin-dried, meanwhile, residual accumulated water in a special-shaped structure can be thrown out, the drying time is further shortened, and the drying efficiency is improved.

Description

Technical Field

[0001] The invention relates to the technical field of cleaning and drying, and in particular to a vibration drying device based on a drying oven. Background Art

[0002] A cleaning oven is a device used to heat and dry objects to be cleaned, usually consisting of a heating system and a control system. Its main principle is to heat the cleaned items through high-temperature air or direct heat source, and to rinse the remaining moisture on the cleaned objects with cleaning liquid, and to achieve a drying effect by evaporating the moisture on the surface.

[0003] However, the existing cleaning and drying furnaces still have the following problems during operation. First, in order to achieve the required drying effect, the temperature set in the cleaning and drying furnace is relatively high, which leads to high gas consumption and increased energy consumption costs; second, the objects to be cleaned are usually placed on the cleaning belt for cleaning and drying operations, and when the number of objects to be cleaned is large, the greater weight increases the load on the cleaning belt, which in turn reduces the carrying capacity of the cleaning belt; in addition, the structures of the objects to be cleaned vary, and during the drying process, objects with special structures are prone to residual water inside, which will further increase the drying time and energy consumption. Summary of the invention

[0004] In order to solve the above technical problems, the present invention provides a vibration drying device based on a drying oven.

[0005] To achieve the above object, the technical solution adopted by the present invention is as follows: A vibrating drying device based on a drying oven comprises a furnace body and a cleaning mesh belt, wherein a groove for the cleaning mesh belt to run is arranged in the furnace body, and the cleaning mesh belt is pulled forward along the groove by a driving assembly, and a vibration mechanism is also arranged in the furnace body, wherein the vibration mechanism comprises a mounting bracket, a resonance connecting rod and a vibration motor, wherein the mounting bracket is fixedly mounted in the furnace body, the mounting bracket comprises two mounting brackets symmetrically arranged on both sides of the traveling direction of the cleaning mesh belt, the vibration motor is arranged on the mounting bracket, and the two ends of the resonance connecting rod are respectively fixed on the two mounting brackets, and the top surface of the resonance connecting rod is arranged in contact with the bottom surface of the cleaning mesh belt; The cleaning mesh belt is also provided with several groups of loading mesh plates and a swinging mechanism, the swinging mechanism includes a turntable gear, a first positioning shaft and a swing arm rod, positioning plates with vertical mesh surfaces facing upward are provided on both sides of the cleaning mesh belt, the turntable gear is rotatably arranged on opposite surfaces of the two positioning plates through a connecting shaft, the first positioning shaft is arranged below the vertical line of the connecting shaft, the swing arm rod is rotatably installed on the first positioning shaft, the lower side of the swing arm rod is fixedly connected to one end of the loading mesh plate through a connecting piece, the upper end of the swing arm rod is provided with a vertical groove, the side of the turntable gear is provided with a second positioning shaft, the second positioning shaft passes through the vertical groove of the swing arm rod and is cooperatively connected with the swing arm rod, a rack with a tooth surface facing downward is also installed in the furnace body, and the rack is meshed and connected with the turntable gear.

[0006] Furthermore, the mounting bracket includes a first connecting plate and a second connecting plate, the first connecting plate is provided with a support guide column facing the second connecting plate, the second connecting plate is provided with a circular hole for the support guide column to pass through, and the support guide column is provided with a shock-absorbing compression spring. The support guide column passes through the shock-absorbing compression spring and the circular hole in turn and is connected to the second connecting plate, and a limiting assembly is provided at the bottom free end of the support guide column. When the vibration motor is working, since the second connecting plate is fixedly arranged in the furnace body, and the first connecting plate and the second connecting plate are connected by a shock-absorbing compression spring, the force generated by the vibration is mainly transmitted to the resonance connecting rod, and the resonance connecting rod is abutted against the cleaning mesh belt, so that the cleaning mesh belt resonates, and then transmits the vibration effect to the object to be cleaned placed above it, and the water attached to the object to be cleaned is thrown off.

[0007] Furthermore, the vibration motor is installed on the top surface of the first connecting plate through a bracket, and the end of the resonance connecting rod is fixedly installed on the bracket. The vibration motor is installed on the bracket through fixing bolts, and the bracket is fixedly installed on the first connecting plate through fixing bolts. Among them, the resonance connecting rod is made of polymer material, which has a lower density and can greatly reduce the weight of the resonance connecting rod compared to metal materials. Reducing weight can reduce the inertia of the vibration system, thereby improving the sensitivity and efficiency of the system response, making the vibration effect more significant, and enhancing the vibration effect of the cleaning mesh belt, thereby enhancing the ability to shake off moisture. In addition, polymer materials usually have good damping properties, which can effectively absorb and alleviate the impact force generated during the vibration process, reduce excessive vibration during the vibration process, control the vibration amplitude, and avoid excessive mechanical loss or damage to surrounding components.

[0008] Furthermore, the long side of the object-carrying mesh plate is arranged perpendicular to the traveling direction of the cleaning mesh belt, and the length of the object-carrying mesh plate is equal to the width of the cleaning mesh belt. The two ends of the object-carrying mesh plate are respectively connected with the swing mechanism, and the automatic swinging operation of the swing mechanism can improve the drying efficiency of the cleaned objects placed in the object-carrying mesh plate. In addition, the length of the object-carrying mesh plate is equal to the width of the cleaning mesh belt, ensuring that the cleaning and drying range of the cleaning mesh belt is covered, and the object-carrying mesh plate can be covered. It avoids the area where the cleaned object may be missed during the movement, and the vibration and cleaning treatment are uniform, thereby improving the cleaning effect.

[0009] Furthermore, a positioning groove is provided in the middle section of the swing arm, and the first positioning shaft is adapted to engage with the positioning groove. The cleaning mesh belt is a relatively long mesh belt, similar to a conveyor belt, and the washing and drying process steps are performed when it passes through the furnace body. The cleaning mesh belt is driven by the driving assembly to move and pass through the furnace body. The working principle of the swing mechanism is that the turntable gear is rotated and arranged on the positioning plate, and when the cleaning mesh belt moves forward, it drives the positioning plate to move forward. Since the rack is fixedly arranged in the furnace body, when the turntable gear is meshed and connected with the rack, the turntable gear rotates, thereby driving the circular motion of the second positioning shaft. At this time, since the swing arm is limited to the positioning plate through the first positioning shaft, the second positioning shaft cooperates with the vertical groove, and the rotation of the second positioning shaft can drive the swing arm to swing back and forth. Therefore, the vibration motor can not only make the loading mesh plate vibrate to dry the water, but also make the loading mesh plate realize a reciprocating swing trajectory, thereby improving the water drying efficiency.

[0010] Furthermore, the distance between the first positioning axis and the connecting axis is greater than the radius of the turntable gear. The rotation of the turntable gear and the rotation of the swing arm are realized independently, and no contact occurs during the rotation of each other. The swing and rotation of the swing arm are both controlled by the second positioning axis, that is, the reciprocating swing effect of the swing arm is controlled by the rotation of the turntable gear.

[0011] Furthermore, the object-carrying mesh plate includes a filter bottom plate and a surrounding plate, and the filter bottom plate and the surrounding plate are both provided with water filtering mesh holes. The objects to be cleaned are placed in a matrix in the object-carrying mesh plate for cleaning and drying operations. The surrounding plate can limit the neatly placed objects to be cleaned, and prevent the objects to be cleaned from falling during the operation and swing of the object-carrying mesh plate. After the water is shaken off or evaporated, the water filtering mesh holes can prevent the water from accumulating on the surface of the object-carrying mesh plate, and avoid the problem of uneven drying or water accumulation of the objects due to water retention, which improves the rapid removal of water on the surface of the objects and helps to improve the efficiency of cleaning and drying.

[0012] Furthermore, a swinging space for the object-carrying mesh plate is reserved between the bottom surface of the object-carrying mesh plate and the cleaning mesh belt. During the cleaning and drying process, the object-carrying mesh plate needs to swing on the cleaning mesh belt to a certain extent. By reserving the swinging space, it is ensured that the object-carrying mesh plate can swing freely without friction or jamming with the cleaning mesh belt.

[0013] Furthermore, several groups of the object-carrying mesh plates are arranged at equal intervals along the running direction of the cleaning mesh belt. The uniform distribution of the object-carrying mesh plates can ensure that each group of objects on the cleaning mesh belt can be subjected to the same intensity of vibration and spin-drying. The equal spacing arrangement allows each object-carrying mesh plate to have sufficient space for vibration, thereby enhancing the water spin-drying effect and improving the cleaning and drying efficiency. The equal spacing arrangement of the object-carrying mesh plates ensures that there is sufficient gap between each object-carrying mesh plate, avoiding collision or friction between objects during the cleaning or spin-drying process, which not only ensures that the objects being cleaned are not damaged, but also ensures the operating stability of the equipment.

[0014] Furthermore, the top surface of the rack is connected to the furnace cavity through an elastic connecting rod. The vibration motor always generates a vibration force during the movement of the cleaning mesh belt. The rack is in contact with the turntable gear. In order to make the turntable gear and the rack always in contact and avoid separation, the rack is connected to the furnace cavity through an elastic connecting rod, so that the rack will also vibrate synchronously during the slight vibration of the cleaning mesh belt. This structural design can avoid the occurrence of tooth disengagement and tooth hitting at the tooth connection.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention can shake off a large amount of water attached to the surface of the object being cleaned by setting a vibration motor, thereby reducing the set temperature in the cleaning oven while ensuring that the object being cleaned is dried, thereby reducing energy consumption costs; 2. The present invention can improve the vertical bearing capacity of the cleaning mesh belt by arranging a resonance connecting rod abutting against the cleaning mesh belt, ensure the smooth transportation of the object-carrying mesh plate and the object to be cleaned, and improve the overall stability of the mechanism; 3. The present invention can drive the swing of the load-carrying mesh plate during the operation of the cleaning mesh belt through the swing mechanism that automatically operates during the travel process, so as to dry out the moisture attached to the surface of the cleaned object and at the same time, throw out the residual water in the special-shaped structure, further reducing the drying time and improving the drying efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a structural schematic diagram of the vibration mechanism; Figure 2 It is a partial schematic diagram of the mounting bracket; Figure 3 is a plan view of the vibration mechanism; Figure 4It is a schematic diagram of the structure of the object-carrying mesh plate and the cleaning mesh belt; Figure 5 It is a disassembled schematic diagram of the swing mechanism; Figure 6 It is a schematic diagram of the matching structure of the rack and the turntable gear; Figure identification: 1-cleaning mesh belt, 2-installing bracket, 201-first connecting plate, 202-second connecting plate, 3-resonance connecting rod, 4-vibration motor, 5-carrying mesh plate, 6-turntable gear, 7-first positioning shaft, 8-swing arm, 9-positioning plate, 10-connecting shaft, 11-connecting piece, 12-vertical groove, 13-second positioning shaft, 14-rack, 15-support guide column, 16-round hole, 17-shock-absorbing compression spring, 18-bracket, 19-positioning groove, 20-elastic connecting rod. DETAILED DESCRIPTION

[0017] In order to make the objectives, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with embodiments and drawings. The exemplary embodiments of the present invention and their description are only used to explain the present invention and are not intended to limit the present invention.

[0018] Embodiment 1, as Figure 1-Figure 6 As shown, the present invention discloses a vibration drying device based on a drying furnace, comprising a furnace body and a cleaning mesh belt 1, wherein a groove for the cleaning mesh belt 1 to run is arranged in the furnace body, and the cleaning mesh belt 1 is pulled forward along the groove by a driving assembly, and a vibration mechanism is also arranged in the furnace body, and the vibration mechanism comprises a mounting bracket 2, a resonance connecting rod 3 and a vibration motor 4, wherein the mounting bracket 2 is fixedly installed in the furnace body, the mounting bracket 2 comprises two and symmetrically arranged on both sides of the traveling direction of the cleaning mesh belt 1, the vibration motor 4 is arranged on the mounting bracket 2, and the two ends of the resonance connecting rod 3 are respectively fixed on the two mounting brackets 2, and the top surface of the resonance connecting rod 3 is arranged in contact with the bottom surface of the cleaning mesh belt 1.

[0019] The cleaning mesh belt 1 is also provided with several groups of loading mesh plates 5 and a swinging mechanism, and the swinging mechanism includes a turntable gear 6, a first positioning shaft 7 and a swing arm 8. Positioning plates 9 with vertical mesh surfaces facing upward are provided on both sides of the cleaning mesh belt 1. The turntable gear 6 is rotatably arranged on the opposite surfaces of the two positioning plates 9 through a connecting shaft 10. The first positioning shaft 7 is arranged below the vertical line of the connecting shaft 10. The swing arm 8 is rotatably installed on the first positioning shaft 7. The lower part of the swing arm 8 is fixedly connected to one end of the loading mesh plate 5 through a connecting piece 11. A vertical groove 12 is provided on the upper end of the swing arm 8. A second positioning shaft 13 is provided on the side of the turntable gear 6. The second positioning shaft 13 passes through the vertical groove 12 of the swing arm 8 and is connected to the swing arm 8. A rack 14 with a tooth surface facing downward is also installed in the furnace body, and the rack 14 is meshed and connected with the turntable gear 6.

[0020] The mounting bracket 2 includes a first connecting plate 201 and a second connecting plate 202. The first connecting plate 201 is provided with a support guide column 15 facing the second connecting plate 202. The second connecting plate 202 is provided with a circular hole 16 for the support guide column 15 to pass through. The support guide column 15 is provided with a shock-absorbing compression spring 17. Specifically, the support guide column 15 passes through the shock-absorbing compression spring 17 and the circular hole 16 in sequence and is connected to the second connecting plate 202, and a limit assembly is provided at the bottom free end of the support guide column 15. When the vibration motor 4 is working, since the second connecting plate 202 is fixedly arranged in the furnace body, and the first connecting plate 201 and the second connecting plate 202 are connected by the shock-absorbing compression spring 17, the force generated by the vibration is mainly transmitted to the resonance connecting rod 3, and the resonance connecting rod 3 is abutted against the cleaning mesh belt 1, so that the cleaning mesh belt 1 resonates, and then transmits the vibration effect to the object to be cleaned placed above it, and the water attached to the object to be cleaned is thrown off.

[0021] The vibration motor 4 is installed on the top surface of the first connecting plate 201 through the bracket 18, and the end of the resonance link 3 is fixedly installed on the bracket 18. Specifically, the vibration motor 4 is installed on the bracket 18 through the fixing bolts, and the bracket 18 is fixedly installed on the first connecting plate 201 through the fixing bolts. Among them, the resonance link 3 is made of polymer material, and the polymer material has a lower density. Compared with metal materials, it can greatly reduce the weight of the resonance link. Reducing weight can reduce the inertia of the vibration system, thereby improving the sensitivity and efficiency of the system response, making the vibration effect more significant, and enhancing the vibration effect of the cleaning mesh belt 1, thereby enhancing the ability to shake off moisture. In addition, polymer materials usually have good damping properties, which can effectively absorb and alleviate the impact force generated during the vibration process, reduce excessive vibration during the vibration process, control the vibration amplitude, and avoid excessive mechanical loss or damage to surrounding components.

[0022] The long side of the object-carrying mesh plate 5 is arranged perpendicular to the traveling direction of the cleaning mesh belt 1, and the length of the object-carrying mesh plate 5 is equal to the width of the cleaning mesh belt 1. Specifically, the two ends of the object-carrying mesh plate 5 are respectively connected with the swing mechanism, and the automatic swinging operation of the swing mechanism can improve the drying efficiency of the objects to be washed placed in the object-carrying mesh plate 5. In addition, the length of the object-carrying mesh plate 5 is equal to the width of the cleaning mesh belt 1, ensuring that the cleaning and drying range covered by the cleaning mesh belt 1 can be covered by the object-carrying mesh plate 5. It avoids the area where the objects to be washed may be missed during the movement, and the vibration and cleaning treatment are uniform, thereby improving the cleaning effect.

[0023] The middle section of the swing arm 8 is provided with a positioning groove 19, and the first positioning shaft 7 is adapted to engage with the positioning groove 19. Specifically, the cleaning mesh belt 1 is a long mesh belt, similar to a conveyor belt, and when it passes through the furnace body, the washing and drying process steps are performed. The cleaning mesh belt 1 is driven by the driving assembly to move and pass through the furnace body. The working principle of the swing mechanism is that the turntable gear 6 is rotatably arranged on the positioning plate 9, and when the cleaning mesh belt 1 moves forward, it drives the positioning plate 9 forward. Since the rack 14 is fixedly arranged in the furnace body, when the turntable gear 6 is meshed and connected with the rack 14, the turntable gear 6 rotates, thereby driving the circular motion of the second positioning shaft 13. At this time, since the swing arm 8 is limited to the positioning plate 9 through the first positioning shaft 7, the second positioning shaft 13 cooperates with the vertical groove 12, and the rotation of the second positioning shaft 13 can drive the swing arm 8 to swing back and forth. Therefore, the vibration motor 4 can not only make the object-carrying mesh plate 5 vibrate to dry the water, but also make the object-carrying mesh plate 5 realize a back and forth swing trajectory, thereby improving the drying efficiency of the water.

[0024] The distance between the first positioning shaft 7 and the connecting shaft 10 is greater than the radius of the turntable gear 6. Specifically, the rotation of the turntable gear 6 and the rotation of the swing arm 8 are realized independently, and no contact occurs during the rotation of each other. The swing and rotation of the swing arm 8 are controlled by the second positioning shaft 13, that is, the reciprocating swing effect of the swing arm 8 is controlled by the rotation of the turntable gear 6.

[0025] The object-carrying mesh plate 5 includes a filter bottom plate and a surrounding plate, and the filter bottom plate and the surrounding plate are both provided with water filtering mesh holes. Specifically, the objects to be cleaned are placed in a matrix on the object-carrying mesh plate 5 for cleaning and drying operations. The surrounding plate can limit the neatly placed objects to be cleaned, and prevent the objects to be cleaned from falling off during the swinging of the object-carrying mesh plate 5. Figure 6 As shown, the cleaned objects are displayed in a light can. After the water is shaken off or evaporated, the water filter mesh can prevent the water from accumulating on the surface of the object-carrying mesh plate, avoiding the problem of uneven drying or water accumulation of the object caused by water retention. This improves the rapid removal of water on the surface of the object and helps to improve the efficiency of cleaning and drying.

[0026] A swinging space for the object-carrying mesh plate 5 is reserved between the bottom surface of the object-carrying mesh plate 5 and the cleaning mesh belt 1. Specifically, during the cleaning and drying process, the object-carrying mesh plate 5 needs to swing to a certain extent on the cleaning mesh belt 1. By reserving the swinging space, it is ensured that the object-carrying mesh plate 5 can swing freely without friction or jamming with the cleaning mesh belt 1.

[0027] Several groups of the object-carrying mesh plates 5 are arranged at equal intervals along the running direction of the cleaning mesh belt 1. Specifically, the uniform distribution of the object-carrying mesh plates 5 can ensure that each group of objects on the cleaning mesh belt 1 can be subjected to the same intensity of vibration and spin-drying, and the equal spacing arrangement allows each object-carrying mesh plate 5 to have sufficient space for vibration, thereby enhancing the water spin-drying effect and improving the cleaning and drying efficiency. The equal spacing arrangement of the object-carrying mesh plates 5 ensures that there is enough gap between each object-carrying mesh plate 5, avoiding collision or friction between objects during the cleaning or spin-drying process, which not only ensures that the objects being cleaned are not damaged, but also ensures the running stability of the equipment.

[0028] The top surface of the rack 14 is connected to the inner cavity of the furnace body through an elastic connecting rod 20. Specifically, the vibration motor 4 always generates a vibration force during the movement of the cleaning mesh belt 1. The rack 14 is in contact with the turntable gear 6. In order to make the turntable gear 6 and the rack 14 always in contact and avoid separation, the rack 14 is connected to the inner cavity of the furnace body through an elastic connecting rod 20, so that the rack 14 can also vibrate synchronously during the slight vibration of the cleaning mesh belt 1. This structural design can avoid the occurrence of tooth disengagement and tooth hitting at the tooth connection part.

[0029] Embodiment 2: Based on embodiment 1, this embodiment proposes a specific working principle of a vibration drying device based on a drying oven.

[0030] The specific implementation principle process is as follows: The cleaning mesh belt 1 is driven by the driving assembly to move along the groove in the furnace body, and the vibration motor 4 is started to work to generate vibration. The vibration is transmitted to the resonance link 3 through the mounting bracket 2, and the cleaning mesh belt 1 is resonated by the contact between the resonance link 3 and the cleaning mesh belt 1, and then transmitted to the object-carrying mesh plate 5 through the swing arm 8 installed on the first positioning shaft 7, so as to achieve the effect of drying the moisture of the object on the object-carrying mesh plate 5. Since the cleaning mesh belt 1 generates vibration through resonance, the moisture is thrown off from the surface of the object to be cleaned on the object-carrying mesh plate 5, thereby accelerating the drying process. In this process, the swing mechanism controls the swing of the object-carrying mesh plate 5 through the turntable gear 6, the first positioning shaft 7 and the swing arm 8. The turntable gear 6 drives the swing arm 8 through the rack 14 and the second positioning shaft 13, thereby driving the object-carrying mesh plate 5 to swing back and forth. The swing arm 8 generates a periodic swinging effect through the meshing movement with the turntable gear 6, so that the object-carrying mesh plate 5 swings on the cleaning mesh belt 1, further enhancing the effect of throwing off the moisture and improving the drying efficiency. Under the dual action of the vibration motor 4 and the swing mechanism, the object-carrying mesh plate 5 can not only move along the cleaning mesh belt 1 to generate vibration, but also reciprocate on the cleaning mesh belt 1. This dual action makes the objects being cleaned continuously vibrate on the mesh plate, achieving the effect of efficient drying.

[0031] The working state of the vibration motor 4 can be controlled by adjusting the operating frequency or intensity of the motor to control the amplitude and frequency of the vibration to adapt to different types of cleaning objects. Because the amount of water attached to the surface of the cleaned object is reduced after vibration, the temperature of the cleaning oven can be appropriately reduced to 190°C (the conventional setting temperature is 213°C) while ensuring that the cleaned object is dried. The average daily consumption of a conventional oven is about 1120 After vibrating the cleaned objects before drying, the average daily consumption of the oven is about 820 This not only saves natural gas consumption, but also reduces the operating temperature of the cleaning furnace and improves product performance.

[0032] Of course, the present invention may have many other embodiments. Without departing from the spirit and essence of the present invention, technicians familiar with the field may make various corresponding changes and modifications based on the present invention, but these corresponding changes and modifications should all fall within the scope of protection of the claims attached to the present invention.

Claims

1. A vibrating drying device based on a drying oven, comprising a oven body and a cleaning mesh belt (1), wherein a groove for the cleaning mesh belt (1) to run is arranged in the oven body, and the cleaning mesh belt (1) is pulled forward along the groove by a driving assembly, characterized in that: A vibration mechanism is also provided in the furnace body, the vibration mechanism comprising a mounting bracket (2), a resonance connecting rod (3) and a vibration motor (4); the mounting bracket (2) is fixedly mounted in the furnace body; the mounting bracket (2) comprises two symmetrically arranged on both sides of the traveling direction of the cleaning mesh belt (1); the vibration motor (4) is arranged on the mounting bracket (2); the two ends of the resonance connecting rod (3) are respectively fixed on the two mounting brackets (2); the top surface of the resonance connecting rod (3) is arranged to fit the bottom surface of the cleaning mesh belt (1); The cleaning mesh belt (1) is also provided with a plurality of groups of object-carrying mesh plates (5) and a swing mechanism, wherein the swing mechanism comprises a turntable gear (6), a first positioning shaft (7) and a swing arm (8). Positioning plates (9) with the mesh surface facing upward are provided on both sides of the cleaning mesh belt (1). The turntable gear (6) is rotatably arranged on opposite surfaces of the two positioning plates (9) via a connecting shaft (10). The first positioning shaft (7) is arranged below the vertical line of the connecting shaft (10). The swing arm (8) is rotatably installed on the first positioning shaft (7). The swing arm (8) is fixedly connected to one end of the loading mesh plate (5) through a connecting piece (11) at the bottom, a vertical groove (12) is arranged at the upper end of the swing arm (8), a second positioning shaft (13) is arranged on the side of the turntable gear (6), the second positioning shaft (13) passes through the vertical groove (12) of the swing arm (8) and is connected to the swing arm (8) in a cooperative manner, and a rack (14) with a tooth surface facing downward is also installed in the furnace body, and the rack (14) is meshed and connected with the turntable gear (6).

2. A vibration drying device based on a drying oven according to claim 1, characterized in that: The mounting bracket (2) comprises a first connecting plate (201) and a second connecting plate (202); the first connecting plate (201) is provided with a supporting guide column (15) facing the second connecting plate (202); the second connecting plate (202) is provided with a circular hole (16) for the supporting guide column (15) to pass through; and the supporting guide column (15) is provided with a shock-absorbing compression spring (17).

3. A vibration drying device based on a drying oven according to claim 2, characterized in that: The vibration motor (4) is mounted on the top surface of the first connecting plate (201) via a bracket (18), and the end of the resonance connecting rod (3) is fixedly mounted on the bracket (18).

4. The vibration drying device based on a drying oven according to claim 1, characterized in that: The long side of the object-carrying mesh plate (5) is arranged perpendicular to the travel direction of the cleaning mesh belt (1), and the length of the object-carrying mesh plate (5) is equal to the width of the cleaning mesh belt (1).

5. The vibration drying device based on a drying oven according to claim 1, characterized in that: A positioning groove (19) is provided in the middle section of the swing arm rod (8), and the first positioning shaft (7) is adapted to be snap-fitted to the positioning groove (19).

6. The vibration drying device based on a drying oven according to claim 1, characterized in that: The distance between the first positioning axis (7) and the connecting axis (10) is greater than the radius of the turntable gear (6).

7. The vibration drying device based on a drying oven according to claim 1, characterized in that: The object-carrying mesh plate (5) comprises a filter bottom plate and a surrounding plate, and both the filter bottom plate and the surrounding plate are provided with water filtering mesh holes.

8. The vibration drying device based on a drying oven according to claim 1, characterized in that: A swing space for the object-carrying mesh plate (5) is reserved between the bottom surface of the object-carrying mesh plate (5) and the cleaning mesh belt (1).

9. The vibration drying device based on a drying oven according to claim 1, characterized in that: A plurality of groups of the object-carrying mesh plates (5) are arranged at equal intervals along the running direction of the cleaning mesh belt (1).

10. The vibration drying device based on a drying oven according to claim 1, characterized in that: The top surface of the rack (14) is connected to the inner cavity of the furnace body via an elastic connecting rod (20).

Images