Vacuum rapid quenching device and method for solid electrolyte material

Abstract

The invention discloses a vacuum rapid quenching device and method for a solid electrolyte material, and particularly relates to the technical field of solid electrolyte machining, the vacuum rapid quenching device comprises a rapid quenching treatment box, a cooling liquid injection assembly is arranged on the side face of the rapid quenching treatment box, a vacuum pump is connected to the side face of the rapid quenching treatment box, and a rotating cylinder is rotationally connected into the rapid quenching treatment box. Through the arrangement of the rotating cylinder, the driving assembly, the first rotating disc, the second rotating disc, a pushing column, a pushing hole, a vacuum pump and a cooling liquid injection assembly, a material in a placement groove in the lowermost side can be immersed into cooling liquid for rapid quenching, and the rotating cylinder is matched with the rapid quenching treatment box to keep a closed state; the driving assembly can push the first rotating disc, the rotating column and the rotating cylinder to intermittently rotate through the second rotating disc and the pushing rod, materials can be conveniently taken and placed in the intermittent process, operation is convenient and efficient, the situation that the low-temperature environment in the rapid quenching treatment box is damaged is avoided, and the situation that energy is greatly wasted is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of solid electrolyte processing, and more specifically, to a vacuum rapid quenching device and method for solid electrolyte materials. Background Art

[0002] The solid electrolyte material is rapidly quenched after processing. The purpose of rapid quenching is to improve the crystal structure of the material, improve the crystal quality, and thus improve the performance of the electrolyte. Rapid quenching is a processing method for rapidly cooling the material, which is used to regulate the crystal structure and performance of the material. The container used for quenching needs to be opened during the process of placing the heated material in and taking it out after quenching. The container is directly connected to the external space, which damages the low-temperature environment inside the container. It is necessary to subsequently significantly cool the inside of the container again, resulting in energy waste. Therefore, a vacuum rapid quenching device and method for solid electrolyte materials are needed to solve the above problems. Summary of the invention

[0003] In order to overcome the above-mentioned defects, the present invention provides a vacuum rapid quenching device and method for solid electrolyte materials. The technical problem to be solved by the present invention is: during the taking and placing operation of the material rapid quenching process, opening the quenching container and connecting the container to the outside will destroy the internal low-temperature environment and cause energy waste.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a vacuum quenching device for solid electrolyte materials, comprising a quenching treatment box, a cooling and liquid injection assembly is provided on the side of the quenching treatment box, a vacuum pump is connected to the side of the quenching treatment box, a rotating cylinder is rotatably connected in the quenching treatment box, four placement grooves are provided on the outside of the rotating cylinder, an extension groove is provided on the inner wall of the placement groove, a receiving groove is provided in the placement groove, a rotating shielding device is provided in the extension groove and the receiving groove, grooves are provided on the front and back of the rotating cylinder, four connecting holes are provided in the groove, the connecting holes are connected with two grooves, a movable supporting device that is slidably provided in the connecting hole and penetrates and is connected in the placement groove, two extrusion rings are overlapped on the outside of the movable supporting device, the extrusion ring is connected in the quenching treatment box, a rotating shaft is connected to the back of the rotating cylinder, and a rotation control device is connected to the back of the rotating shaft.

[0005] As a further solution of the present invention: the rotation control device is connected to the back of the quenching box, the rotating shaft outer sleeve is provided with a bearing, the bearing is penetrated through the back of the quenching box, and the side of the quenching box is connected to a drain pipe.

[0006] As a further solution of the present invention: a magnetic plate is connected to the rapid quenching treatment box, and the cooling liquid injection assembly and the vacuum pump are both connected to the interior of the rapid quenching treatment box.

[0007] As a further solution of the present invention: the rotating shielding device includes a rotating mesh plate, the rotating mesh plate is slidably connected in the storage slot, the rotating mesh plate is configured to be arc-shaped, and the size of the rotating mesh plate corresponds to the size of the placement slot.

[0008] As a further solution of the present invention: the side of the rotating mesh plate is connected to a first elastic component, the other end of the first elastic component is connected to the storage slot, the back of the rotating mesh plate is connected to an extended magnetic rod, the extended magnetic rod is slidably arranged in the extension slot, and the opposite surface of the extended magnetic rod and the magnetic plate have opposite magnetism.

[0009] As a further solution of the present invention: the movable support device includes a support plate, which is slidably arranged in the placement groove, and a movable column is connected to the side of the support plate close to the connecting hole, and the movable column passes through the placement groove and the connecting hole, and one end of the movable column located in the connecting hole is connected to a sliding plate, and the sliding plate is slidably arranged in the connecting hole.

[0010] As a further solution of the present invention: the movable column outer sleeve is provided with a second elastic component, the second elastic component is connected to the inner wall of the connecting hole and the sliding plate, the front and back sides of the sliding plate are connected to extended contact rods, and the extended contact rods are slidably arranged outside the extrusion ring.

[0011] As a further solution of the present invention: the rotation control device includes a drive assembly and a first turntable, the drive assembly is connected to the back of the quenching treatment box, the front of the first turntable is connected to the rotating shaft at the axis center, the output shaft of the drive assembly is connected to the second turntable, and the front of the second turntable is connected to a connecting rod.

[0012] As a further solution of the present invention: a pushing column is connected to the back of the connecting rod, four rotating grooves are opened on the front of the first turntable, four pushing holes are opened on the front of the first turntable, the second turntable is connected to one of the rotating grooves, and the pushing column can be moved into the pushing hole.

[0013] A method for using a vacuum rapid quenching device for solid electrolyte materials, the method comprising the following steps:

[0014] When the material needs to be quenched quickly, the material heated at high temperature is directly placed in the placement groove, and the driving component is controlled to work at the same time. The driving component controls the second turntable to rotate, and the connecting rod drives the pushing column to rotate into the pushing hole. The pushing column drives the pushing hole and the first turntable to rotate, and the first turntable drives the rotating shaft and the rotating cylinder to rotate. During the rotation of the rotating cylinder, the extrusion ring remains stationary, the extended contact rod rotates with the rotating cylinder and is squeezed by the extrusion ring, the extended contact rod and the sliding plate are squeezed to move close to the material, and the support plate pushes the material to move. During the process of the storage groove rotating away from the magnetic plate, the magnetic force between the magnetic plate and the extended magnetic rod is reduced. At this time, the first elastic component controls the rotating mesh plate to extend from the storage groove;

[0015] The rotating screen covers the opening of the storage groove, and the support plate moves to press the material against the surface of the rotating screen plate. Then the driving component continuously controls the rotating cylinder to rotate intermittently. The material after high-temperature treatment rotates to the lowest point and enters the coolant in the quick quenching treatment box to achieve quick quenching. Subsequently, the material after the quick quenching is driven upward by the rotating rotating cylinder to separate from the coolant. The material is taken and placed during the quick quenching process. The internal space of the quick quenching treatment box will not be directly connected to the outside to avoid significant damage to the low-temperature environment. The material after the quick quenching is rotated upward. When the extended contact rod rotates to the straight section of the extrusion ring, the second elastic component drives the moving column and the support plate to move downward, so that the support plate moves away from the rotating screen plate. At this time, the extended magnetic rod moves close to the magnetic plate, and the magnetic force between the two pulls the rotating screen plate, so that the rotating screen plate squeezes the first elastic component and enters the storage groove. Then the quick-quenched material can be taken out from the placement groove.

[0016] The beneficial effects of the present invention are:

[0017] 1. The present invention is provided with a rotating cylinder, a driving component, a first rotating disk, a second rotating disk, a pushing column, a pushing hole, a vacuum pump, and a cooling liquid injection component. The vacuum pump makes the quenching treatment box in a vacuum environment. The four placement slots provided in the rotating cylinder are used to place and take materials in the uppermost placement slot, and the materials in the lowermost placement slot can be immersed in the coolant for quenching. The rotating cylinder itself cooperates with the quenching treatment box to maintain a closed state. The driving component can push the first rotating disk, the rotating column, and the rotating cylinder to rotate intermittently through the second rotating disk and the pushing rod, so that the material can be taken and put in the intermittent process. The operation is convenient and efficient, and the low-temperature environment inside the quenching treatment box is prevented from being destroyed, and the situation of substantial waste of energy is avoided.

[0018] 2. The present invention arranges an extended magnetic rod, a magnetic plate, a rotating mesh plate, a first elastic component, an extrusion ring, an extended contact rod and a support plate. After the extended contact rod rotates away from the vertical state, the extended contact rod is squeezed and moved by the extrusion ring, thereby controlling the movable column and the support plate to push the material to move. After the extended magnetic rod rotates away from the magnetic plate, the magnetic force between the two is reduced, and the first elastic component controls the rotating mesh plate to extend out of the storage slot. The rotating mesh plate cooperates with the support plate to achieve stable clamping of the material, ensuring that the material remains stable during the subsequent rotation and rapid quenching process, making the rapid quenching process more stable and the material less prone to collision damage. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a three-dimensional structural schematic diagram of the present invention;

[0020] Figure 2 It is a schematic diagram of a three-dimensional cross-sectional structure of the present invention;

[0021] Figure 3 It is a schematic diagram of the three-dimensional structure of the present invention from a rear view;

[0022] Figure 4 It is a three-dimensional structural schematic diagram of the rotating drum of the present invention;

[0023] Figure 5 It is a three-dimensional structural schematic diagram of the rotating drum of the present invention from the rear view;

[0024] Figure 6 It is a three-dimensional structural schematic diagram of the rotating shielding device of the present invention;

[0025] Figure 7 It is a three-dimensional structural schematic diagram of the mobile support device of the present invention;

[0026] Figure 8 It is a three-dimensional structural schematic diagram of the rotation control device of the present invention;

[0027] In the figure: 1. quenching treatment box; 2. cooling and liquid injection component; 3. vacuum pump; 4. drain pipe; 5. rotating cylinder; 6. placement groove; 7. extension groove; 8. storage groove; 9. rotating shielding device; 91. rotating screen plate; 92. extension magnetic rod; 93. first elastic component; 10. connecting hole; 11. moving support device; 111. support plate; 112. moving column; 113. sliding plate; 114. second elastic component; 115. extension contact rod; 12. groove; 13. extrusion ring; 14. rotating shaft; 15. bearing; 16. rotation control device; 161. driving component; 162. first turntable; 163. second turntable; 164. connecting rod; 165. pushing column; 166. rotating groove; 167. pushing hole; 17. magnetic plate. DETAILED DESCRIPTION

[0028] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0029] like Figure 1-8 As shown, the present invention provides a vacuum quenching device for solid electrolyte materials, including a quenching treatment box 1, a cooling liquid injection component 2 is provided on the side of the quenching treatment box 1, a vacuum pump 3 is connected to the side of the quenching treatment box 1, a rotating cylinder 5 is rotatably connected in the quenching treatment box 1, four placement grooves 6 are opened outside the rotating cylinder 5, an extension groove 7 is opened on the inner wall of the placement groove 6, a receiving groove 8 is opened in the placement groove 6, a rotating shielding device 9 is provided in the extension groove 7 and the receiving groove 8, and a groove 12 is opened on the front and back of the rotating cylinder 5. Four connecting holes 10 are provided in 12, and the connecting holes 10 are connected with the two grooves 12. A movable supporting device 11 is slidably provided in the connecting hole 10 and penetrates and is connected in the placement groove 6. Two extrusion rings 13 are overlapped on the outside of the movable supporting device 11, and the extrusion ring 13 is connected in the rapid quenching treatment box 1. The back of the rotating cylinder 5 is connected with a rotating shaft 14, and the back of the rotating shaft 14 is connected with a rotating control device 16. A magnetic plate 17 is connected to the rapid quenching treatment box 1, and the cooling and liquid injection assembly 2 and the vacuum pump 3 are both connected with the interior of the rapid quenching treatment box 1.

[0030] The vacuum pump 3 is used to create a vacuum environment in the rapid quenching treatment box 1, which can reduce surface defects of the material during quenching and avoid interaction between the material and impurities in the air;

[0031] The placement tank 6 is used for placing the material to be quenched, and the cooling liquid injection component 2 is used for cooling the coolant and injecting the coolant into the rapid quenching treatment box 1.

[0032] The rotation control device 16 is connected to the back of the quenching treatment box 1. The outer sleeve of the rotating shaft 14 is provided with a bearing 15. The bearing 15 is arranged on the back of the quenching treatment box 1. The side of the quenching treatment box 1 is connected with a drain pipe 4. The bearing 15 supports the rotating shaft 14 to ensure the smooth rotation of the rotating shaft 14 and the rotating cylinder 5, and the friction force is small during rotation.

[0033] The rotating shielding device 9 includes a rotating mesh plate 91 , which is slidably connected in the storage slot 8 . The rotating mesh plate 91 is configured to be arc-shaped, and the size of the rotating mesh plate 91 corresponds to the size of the placement slot 6 .

[0034] The rotating mesh plate 91 is used. After the rotating mesh plate 91 extends out of the receiving groove 8, it can cover the opening of the placement groove 6 to prevent the material from falling out when rotating to the bottom for rapid quenching, and at the same time will not hinder the contact between the coolant and the material;

[0035] The side of the rotating mesh plate 91 is connected to a first elastic component 93, the other end of the first elastic component 93 is connected to the storage slot 8, the back of the rotating mesh plate 91 is connected to an extended magnetic rod 92, the extended magnetic rod 92 is slidably arranged in the extension slot 7, and the opposite surfaces of the extended magnetic rod 92 and the magnetic plate 17 have opposite magnetism.

[0036] The first elastic component 93 used can control the rotating mesh plate 91 to automatically extend out of the storage slot 8 and keep the rotating mesh plate 91 stable when the extended magnetic rod 92 rotates away from the magnetic plate 17. The magnetic force between the extended magnetic rod 92 and the magnetic plate 17 can pull the rotating mesh plate 91 during the upward rotation of the extended magnetic rod 92, so that the rotating mesh plate 91 enters the storage slot 8 during the rotation of the rotating cylinder 5.

[0037] The movable support device 11 includes a support plate 111, which is slidably arranged in the placement groove 6. A movable column 112 is connected to the side of the support plate 111 close to the connecting hole 10. The movable column 112 passes through the placement groove 6 and the connecting hole 10. One end of the movable column 112 located in the connecting hole 10 is connected to a sliding plate 113, and the sliding plate 113 is slidably arranged in the connecting hole 10.

[0038] The sliding plate 113 cooperates with the connecting hole 10 to prevent the movable column 112 from rotating. The supporting plate 111 cooperates with the rotating mesh plate 91. The supporting plate 111 supports the material and presses against the surface of the rotating mesh plate 91 to achieve simple positioning of the material.

[0039] A second elastic component 114 is provided on the outer sleeve of the movable column 112, and the second elastic component 114 is connected to the inner wall of the connecting hole 10 and the sliding plate 113. The front and back sides of the sliding plate 113 are connected with an extended contact rod 115, and the extended contact rod 115 is slidably arranged outside the extrusion ring 13; the second elastic component 114 is used to control the sliding plate 113 and the support plate 111 to move away from the rotating mesh plate 91 when the extrusion ring 13 reduces the extrusion degree of the extended contact rod 115, so as to release the extrusion of the material, and the extended contact rod 115 cooperates with the extrusion ring 13, and the arc segment and the straight segment of the extrusion ring 13 have different extrusion degrees on the extended contact rod 115, which is used to control the extended contact rod 115 and the support plate 111 to move closer to or away from the rotating mesh plate 91.

[0040] The rotation control device 16 includes a driving component 161 and a first turntable 162. The driving component 161 is connected to the back of the quenching treatment box 1. The front axis of the first turntable 162 is connected to the rotating shaft 14. The output shaft of the driving component 161 is connected to the second turntable 163. The front of the second turntable 163 is connected to a connecting rod 164.

[0041] The driving assembly 161 is used to control the second rotating disk 163 to rotate;

[0042] A push column 165 is connected to the back of the connecting rod 164 , four rotation grooves 166 are opened on the front of the first turntable 162 , four push holes 167 are opened on the front of the first turntable 162 , the second turntable 163 is connected to one of the rotation grooves 166 , and the push column 165 can be moved into the push hole 167 .

[0043] A push column 165 and a push hole 167 are provided to cooperate. The push column 165 rotates one circle and cooperates with the push hole 167 to push the first rotating disk 162 to rotate a quarter circle, so as to realize the intermittent rotation of the rotating cylinder 5. The rotating groove 166 and the second rotating disk 163 are used. After the second rotating disk 163 enters the rotating groove 166, the first rotating disk 162 can be limited.

[0044] A method for using a vacuum rapid quenching device for solid electrolyte materials, the method comprising the following steps:

[0045] When the material needs to be quenched, the material after high-temperature heating is directly placed in the placement groove 6, and the driving component 161 is controlled to work at the same time. The driving component 161 controls the second turntable 163 to rotate, and the connecting rod 164 drives the pushing column 165 to rotate into the pushing hole 167. The pushing column 165 drives the pushing hole 167 and the first turntable 162 to rotate. The first turntable 162 drives the rotating shaft 14 and the rotating cylinder 5 to rotate. During the rotation of the rotating cylinder 5, the extrusion ring 13 remains stationary, and the extended contact rod 115 rotates with the rotating cylinder 5 and is squeezed by the extrusion ring 13. The extended contact rod 115 and the sliding plate 113 are squeezed to move close to the material. At the same time, the support plate 111 pushes the material to move. During the rotation of the storage groove 8 away from the magnetic plate 17, the magnetic force between the magnetic plate 17 and the extended magnetic rod 92 is reduced. At this time, the first elastic component 93 controls the rotating mesh plate 91 to extend out of the storage groove 8;

[0046] The rotating mesh plate 91 blocks the opening of the storage groove 8, and the support plate 111 moves to press the material against the surface of the rotating mesh plate 91. Then the driving component 161 continuously controls the rotating cylinder 5 to rotate intermittently. The material after high-temperature treatment rotates to the lowest point and enters the coolant in the quenching treatment box 1 to achieve quenching. Subsequently, the material after the quenching is driven upward by the rotating rotating cylinder 5 to separate from the coolant. During the quenching process, the internal space of the quenching treatment box 1 will not be directly connected to the outside to avoid significant damage to the low-temperature environment. After the quenching, the material rotates upward. When the extended contact rod 115 rotates to the straight section of the extrusion ring 13, the second elastic component 114 drives the movable column 112 and the support plate 111 to move downward, so that the support plate 111 moves away from the rotating mesh plate 91. At this time, the extended magnetic rod 92 moves close to the magnetic plate 17. The magnetic force between the two pulls the rotating mesh plate 91, so that the rotating mesh plate 91 squeezes the first elastic component 93 and enters the storage groove 8. Then the quenched material can be taken out from the placement groove 6.

[0047] Finally, a few points should be explained: First, in the description of this application, it should be noted that, unless otherwise specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, which may refer to mechanical connection or electrical connection, or internal communication between two components, or direct connection. "upper", "lower", "left", "right", etc. are only used to indicate relative positional relationships. When the absolute position of the object being described changes, the relative positional relationship may change;

[0048] Secondly: In the drawings of the embodiments disclosed in the present invention, only the structures related to the embodiments disclosed in the present invention are involved, and other structures can refer to the general design. In the absence of conflict, the same embodiment and different embodiments of the present invention can be combined with each other;

[0049] Finally: The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A vacuum rapid quenching device for solid electrolyte materials, comprising a rapid quenching treatment box (1), characterized in that: A cooling liquid injection assembly (2) is provided on the side of the rapid quenching treatment box (1), a vacuum pump (3) is connected to the side of the rapid quenching treatment box (1), a rotating cylinder (5) is rotatably connected inside the rapid quenching treatment box (1), four placement grooves (6) are provided on the outside of the rotating cylinder (5), an extension groove (7) is provided on the inner wall of the placement groove (6), a storage groove (8) is provided in the placement groove (6), a rotating shielding device (9) is provided in the extension groove (7) and the storage groove (8), and grooves (14) are provided on the front and back of the rotating cylinder (5). 12), four connecting holes (10) are provided in the groove (12), the connecting holes (10) are connected with the two grooves (12), a movable support device (11) is slidably provided in the connecting holes (10) and penetrates and is connected in the placement groove (6), two extrusion rings (13) are overlapped on the outside of the movable support device (11), the extrusion ring (13) is connected in the rapid quenching treatment box (1), the back side of the rotating cylinder (5) is connected with a rotating shaft (14), and the back side of the rotating shaft (14) is connected with a rotating control device (16).

2. A vacuum quenching device for solid electrolyte material according to claim 1, characterized in that: The rotation control device (16) is connected to the back of the quenching treatment box (1), the outer sleeve of the rotating shaft (14) is provided with a bearing (15), the bearing (15) is penetrated and arranged on the back of the quenching treatment box (1), and the side of the quenching treatment box (1) is connected to a drain pipe (4).

3. A vacuum rapid quenching device for solid electrolyte material according to claim 1, characterized in that: The rapid quenching treatment box (1) is connected to a magnetic plate (17), and the cooling liquid injection component (2) and the vacuum pump (3) are both connected to the interior of the rapid quenching treatment box (1).

4. A vacuum rapid quenching device for solid electrolyte material according to claim 3, characterized in that: The rotating shielding device (9) comprises a rotating mesh plate (91), the rotating mesh plate (91) is slidably connected in the storage groove (8), the rotating mesh plate (91) is configured to be arc-shaped, and the size of the rotating mesh plate (91) corresponds to the size of the placement groove (6).

5. A vacuum quenching device for solid electrolyte material according to claim 4, characterized in that: The side surface of the rotating mesh plate (91) is connected to a first elastic component (93), the other end of the first elastic component (93) is connected to the storage groove (8), the back surface of the rotating mesh plate (91) is connected to an extension magnetic rod (92), the extension magnetic rod (92) is slidably arranged in the extension groove (7), and the opposite surface of the extension magnetic rod (92) and the magnetic plate (17) have opposite magnetism.

6. A vacuum quenching device for solid electrolyte material according to claim 1, characterized in that: The movable support device (11) comprises a support plate (111), the support plate (111) is slidably arranged in the placement groove (6), a side of the support plate (111) close to the connection hole (10) is connected to a movable column (112), the movable column (112) passes through the placement groove (6) and the connection hole (10), and one end of the movable column (112) located in the connection hole (10) is connected to a sliding plate (113), and the sliding plate (113) is slidably arranged in the connection hole (10).

7. A vacuum rapid quenching device for solid electrolyte material according to claim 6, characterized in that: The outer sleeve of the movable column (112) is provided with a second elastic component (114), and the second elastic component (114) is connected to the inner wall of the connecting hole (10) and the sliding plate (113). The front and back sides of the sliding plate (113) are both connected to an extended contact rod (115), and the extended contact rod (115) is slidably arranged outside the extrusion ring (13).

8. The vacuum rapid quenching device for solid electrolyte material according to claim 1, characterized in that: The rotation control device (16) comprises a driving component (161) and a first turntable (162), wherein the driving component (161) is connected to the back side of the rapid quenching treatment box (1), the front side of the first turntable (162) is connected to the rotating shaft (14) at the axis center, the output shaft of the driving component (161) is connected to the second turntable (163), and the front side of the second turntable (163) is connected to a connecting rod (164).

9. A vacuum rapid quenching device for solid electrolyte material according to claim 8, characterized in that: The back side of the connecting rod (164) is connected to a pushing column (165), the front side of the first rotating disk (162) is provided with four rotating grooves (166), the front side of the first rotating disk (162) is provided with four pushing holes (167), the second rotating disk (163) is connected to one of the rotating grooves (166), and the pushing column (165) can be moved into the pushing hole (167).

10. A method for using a vacuum rapid quenching device for solid electrolyte materials according to any one of claims 1 to 9, characterized in that: The method of use comprises the following steps: When the material needs to be subjected to rapid quenching treatment, the material heated at high temperature is directly placed in the placement groove (6), and the driving component (161) is controlled to work at the same time. The driving component (161) controls the second rotating disk (163) to rotate, and at the same time the connecting rod (164) drives the pushing column (165) to rotate into the pushing hole (167). The pushing column (165) drives the pushing hole (167) and the first rotating disk (162) to rotate, and the first rotating disk (162) drives the rotating shaft (14) and the rotating drum (5) to rotate, and the rotating drum (5) rotates. During the process, the extrusion ring (13) remains stationary, the extended contact rod (115) rotates with the rotating cylinder (5) and is squeezed by the extrusion ring (13), the extended contact rod (115) and the sliding plate (113) are squeezed to move close to the material, and the support plate (111) pushes the material to move. When the storage groove (8) rotates away from the magnetic plate (17), the magnetic force between the magnetic plate (17) and the extended magnetic rod (92) decreases, and at this time the first elastic component (93) controls the rotating screen plate (91) to extend out of the storage groove (8); The rotating screen plate (91) blocks the opening of the storage groove (8), and at the same time, the support plate (111) moves to make the material rest against the surface of the rotating screen plate (91), and then the driving component (161) continuously controls the rotating cylinder (5) to rotate intermittently, and the material after high-temperature treatment rotates to the lowest point and enters the coolant in the rapid quenching treatment box (1) to achieve rapid quenching treatment. Subsequently, the material after the rapid quenching treatment is driven upward by the rotating rotating cylinder (5) to separate from the coolant. The material in the rapid quenching process is taken and placed, and the internal space of the rapid quenching treatment box (1) will not be directly connected to the outside, so as to avoid the low temperature environment being greatly affected. The material after rapid quenching rotates upwards. When the extended contact rod (115) rotates to the straight section of the extrusion ring (13), the second elastic component (114) drives the movable column (112) and the support plate (111) to move downwards, so that the support plate (111) moves away from the rotating mesh plate (91). At this time, the extended magnetic rod (92) moves close to the magnetic plate (17). The magnetic force between the two pulls the rotating mesh plate (91), so that the rotating mesh plate (91) squeezes the first elastic component (93) and enters the storage groove (8). Then the material after rapid quenching can be taken out from the placement groove (6).

Images