High-temperature alloy forging heat treatment system and method

Abstract

The invention relates to the technical field of heat treatment equipment, and discloses a high-temperature alloy forging heat treatment system which comprises a workbench. The heating assembly is used for carrying out high-frequency heating treatment on the alloy material; the circulating assembly is used for circularly feeding the alloy material; the cooling assembly is used for carrying out quenching heat treatment on the alloy material subjected to high-frequency heat treatment; and the airflow assembly is used for providing power for the cooling assembly and generating airflow to cool the alloy material. According to the high-temperature alloy forging heat treatment system and method, a certain redundant space can be reduced through a pipeline type closed high-frequency heating mode, and compared with traditional furnace type high-temperature heat treatment, the mode and equipment can reduce energy consumption to a certain extent, so that an alloy material can be uniformly heated, the heat treatment quality is guaranteed, and the heat treatment efficiency is improved. Meanwhile, the materials are sealed in a left-right opening and closing closed mode, an operator can place and operate the materials more conveniently, in a traditional mode, the materials need to stretch into the furnace, hot air can be fed back to the operator after the furnace is opened, and potential safety hazards to a certain degree are caused.

Description

Technical Field

[0001] The invention relates to the technical field of heat treatment equipment, and in particular to a high-temperature alloy forging heat treatment system and method. Background Art

[0002] Alloy forging heat treatment equipment is used to forge and heat treat alloy materials. These equipment include: forging machines, heat treatment furnaces, control systems and auxiliary equipment. Alloy forging heat treatment equipment is widely used in the manufacturing industry, especially in the fields of aerospace, automobiles, energy, etc. Through appropriate heat treatment processes, the hardness, strength, corrosion resistance and other properties of alloy materials can be improved to meet the needs of different applications.

[0003] At present, in the process of high-temperature heat treatment of alloys, many of them are placed in a calcining furnace for high-temperature heat treatment. The space of the calcining furnace is large. When high-temperature heat treatment is required, the excessive space in the furnace will lead to increased heating energy consumption, and the overall high-temperature treatment of the alloy in the furnace is not uniform, which can easily lead to incomplete transformation of the crystals inside the alloy, resulting in reduced heat treatment quality. At the same time, when performing high-temperature heat treatment, the alloy material also needs to be quenched. The traditional quenching method is to place it directly in a water-cooled or oil-cooled area. However, in this type of heat treatment method, the alloy material will assimilate the surrounding liquid at high temperature, resulting in a problem that the overall heat treatment effect will be reduced. Therefore, a high-temperature alloy forging heat treatment system and method are proposed to solve the above-mentioned problems. Summary of the invention

[0004] In view of the deficiencies in the prior art, the present invention provides a high-temperature alloy forging heat treatment system and method, which solves the problems in the prior art of high-temperature heat treatment of alloy materials in a calcining furnace and alloy quenching, such as uneven calcination, incomplete crystal conversion, excessive energy consumption, general quenching effect, and ultimately poor quality of the alloy after heat treatment.

[0005] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a high-temperature alloy forging heat treatment system, comprising a workbench; a heating component for performing high-frequency heating treatment on the alloy material; a circulation component for circulating the alloy material; a cooling component for performing quenching heat treatment on the alloy material after the high-frequency heat treatment; and an airflow component for providing power to the cooling component and generating airflow to cool the alloy material.

[0006] Preferably, the heating component includes a high-frequency box, a high-frequency heating coil is arranged in the high-frequency box, a sleeve 1 is arranged inside the high-frequency heating coil, a placement rack is arranged on the left side of the sleeve 1, a tail stock is connected to the left end of the placement rack, a slide is connected to the tail stock, and the slide is connected to the circulation component.

[0007] Preferably, the bottom of the high-frequency box is slidably connected to the workbench via a slide rail, the high-frequency box is provided with control keys, and the high-frequency box is provided with a transparent window.

[0008] Preferably, the circulation component includes a hollow seat, a power part is installed on the hollow seat, the output end of the power part is connected to a connecting shaft, two sprockets are connected to the connecting shaft, the sprocket one is connected to the sprocket two through a chain, the sprocket two is connected to the hollow seat through a transmission shaft, and the chain is fixedly connected to the sliding seat.

[0009] Preferably, the airflow component includes a driving motor, the output end of the driving motor is connected to a driving shaft, the driving shaft is connected to a driving gear, the driving gear is meshed with a first gear, and the first gear is connected to sleeve one.

[0010] Preferably, the cooling assembly includes a second sleeve, which is arranged inside the high-frequency box, and a second gear is rotatably connected to the second sleeve and meshes with the driving gear for transmission, one side of the second gear is located inside the second sleeve and is connected to a turbine, and the second sleeve is connected to a suction pipe, one end of the suction pipe extends below the liquid level of the water tank, the interior of the high-frequency box is slidably connected to a pipeline, one end of the pipeline is slidably connected to a fitting plate, the fitting plate is connected to a compression spring, one end of the compression spring is connected to the pipeline, a through hole is provided on the tail seat, and a reflux groove is provided inside the high-frequency box.

[0011] Preferably, the airflow component also includes a fixed box, which is fixed on the high-frequency box, a fourth gear is connected to the fixed box through an axis rod, a third gear is meshed on the fourth gear, and the third gear is connected to the end face of the drive shaft, and the bottom of the fixed box is connected to pipeline 2, and one end of pipeline 2 is connected to sleeve 1.

[0012] Preferably, the bottom of the fixed box is connected to a pipeline three, the end face of the pipeline three is slidably connected to a cooling box, the cooling box is connected to the water tank, a vent is provided on the cooling box, and a plurality of cooling ports are provided at the bottom of the cooling box.

[0013] Preferably, the fixed box is connected with an air pipe, one end of the air pipe is connected with the hollow seat, and one side of the hollow seat is connected with an air nozzle.

[0014] Compared with the prior art, the present invention provides a high-temperature alloy forging heat treatment system and method, which has the following beneficial effects: 1. The high-temperature alloy forging heat treatment system and method can reduce a certain amount of redundant space by setting up a pipeline-type closed high-frequency heating method. Compared with the traditional furnace-type high-temperature heat treatment, this method and equipment can reduce a certain degree of energy consumption, so that the alloy material can be heated evenly, ensuring the quality of heat treatment. At the same time, the material is sealed in a left and right opening and closing closed manner, which is more convenient for operators to place and operate the material. The traditional method requires the material to be inserted into the furnace, and after opening, the hot air will be fed back to the operator, causing a certain degree of safety hazard.

[0015] 2. The high-temperature alloy forging heat treatment system can improve the overall performance of the material by allowing the alloy material to undergo high-temperature heat treatment and low-temperature medium quenching in sequence through the entire system, and reflux quenching the metal material in the pipeline, so that the cooling medium can circulate and always maintain the quenching effect on the metal material, and the air flow can be used to cool it after quenching. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is a schematic diagram of the overall structure of a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 2 This is a schematic cross-sectional structure diagram of a high-frequency box of a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 3 This is a structural schematic diagram of a placement rack for a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 4 A schematic diagram of a circulation component of a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 5 This is a schematic diagram of the connection between a high-frequency box and a workbench of a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 6 A schematic diagram of a cooling assembly for a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 7 A schematic diagram of bonding plate connection of a high-temperature alloy forging heat treatment system proposed by the present invention; Figure 8 A schematic diagram of an airflow component of a high-temperature alloy forging heat treatment system proposed in the present invention.

[0017] In the figure: 1, workbench; 2, heating component; 201, high frequency box; 202, high frequency heating coil; 203, sleeve 1; 204, placement rack; 205, tailstock; 206, slide seat; 207, through hole; 208, first gear; 3, circulation component; 301, hollow seat; 302, sprocket 1; 303, connecting shaft; 304, transmission shaft; 305, sprocket 2; 4, cooling component; 401, sleeve 2; 402, pipeline 1; 403, reflux tank; 404, Suction pipe; 405, turbine; 406, second gear; 5, airflow assembly; 501, drive motor; 502, drive shaft; 503, drive gear; 504, third gear; 505, fourth gear; 506, fixed box; 507, pipeline two; 508, air pipe; 509, air nozzle; 510, pipeline three; 511, cooling box; 512, cooling port; 513, ventilation port; 6, water tank; 7, bonding plate; 8, compression spring; 9, slide rail; 10, transparent window;. DETAILED DESCRIPTION

[0018] 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.

[0019] Example 1 A high temperature alloy forging heat treatment system See also Figure 1-8 , comprising a workbench 1; a heating component 2, used for performing high-frequency heating treatment on the alloy material; In this embodiment, please refer to Figure 2-Figure 3 The heating assembly 2 includes a high-frequency box 201, a high-frequency heating coil 202 is arranged inside the high-frequency box 201, a sleeve 203 is arranged inside the high-frequency heating coil 202, a placement rack 204 is arranged on the left side of the sleeve 203, and a tailstock 205 is connected to the left end of the placement rack 204. By sliding the high-frequency box 201 to the left, the entire sleeve 203 will be directly set on the placement rack 204, and then the high-frequency heating coil 202 is energized. With the generation of electromagnetic induction and eddy current effects, the internal alloy material will be heated to the required temperature at a very fast speed. The tailstock 205 is connected to a slide 206, and the slide 206 is connected to the circulation assembly 3. The bottom of the high-frequency box 201 is slidably connected to the workbench 1 through a slide rail 9, and the slide rail 9 can make the high-frequency box 201 smoother when sliding. The high-frequency box 201 is provided with a control key and a transparent window 10. By providing the transparent window 10 , the operator can check the real-time changes of the alloy material according to the position of the transparent window 10 , which is convenient for emergency braking later.

[0020] Furthermore, the circulation component 3 is used for circulating the alloy material; See also Figure 3-Figure 4 , the circulation component 3 includes a hollow seat 301, a power piece is installed on the hollow seat 301, the output end of the power piece is connected to a connecting shaft 303, two sprockets 1 302 are connected to the connecting shaft 303, the sprocket 1 302 is connected to the sprocket 2 305 through a chain, the sprocket 2 305 is connected to the hollow seat 301 through a transmission shaft 304, the chain is fixedly connected to the slide 206, the electric device inside the circulation component 3 is started, and the power piece in the circulation component 3 is a servo motor, the servo motor can ensure that each rotation of a certain number of circles is stopped, through the transmission of the chain and the sprocket, it will drive the placement rack 204 to move a certain distance in a circular shape, the heat-treated alloy material will move to the end face position of the sleeve 2 401, and the other set of placement racks 204 outside will move to the high-temperature treatment working area. Therefore, the cyclic feeding of the alloy material can be realized without the operator manually transferring the material, and the alloy material in the high-temperature state can be transferred by using the equipment.

[0021] For further information, see Figure 8 The airflow component 5 includes a driving motor 501, the output end of the driving motor 501 is connected to a driving shaft 502, the driving shaft 502 is connected to a driving gear 503, the driving gear 503 is meshed with a first gear 208, the first gear 208 is connected to the sleeve 203, and the rotation of the driving motor 501 will drive the rotation of the first gear 208 through the meshing of the gears, thereby driving the high-frequency heating coil 202 to rotate. Because the position of the workpiece is unchanged, the high-frequency heating coil 202 in a rotating state can ensure that the electromagnetic induction of the alloy material is balanced, ensure that the internal crystal conversion is complete, and the heating is more uniform.

[0022] In addition, the cooling component 4 is used to perform quenching heat treatment on the alloy material after high-frequency heat treatment; See also Figure 6-Figure 7The cooling assembly 4 includes a sleeve 2 401, which is arranged inside the high-frequency box 201. The sleeve 2 401 is rotatably connected to a second gear 406 that meshes with the driving gear 503 for transmission. One side of the second gear 406 is located inside the sleeve 2 401 and is connected to a turbine 405. The sleeve 2 401 is connected to a suction pipe 404, and one end of the suction pipe 404 extends below the liquid level of the water tank 6. Because the suction pipe 404 needs to be inserted into the liquid to absorb the flow, the end face needs to be introduced below the liquid level. The high-frequency box 201 is slidably connected to a pipeline 1 402, and one end of the pipeline 1 402 is slidably connected to a fitting plate 7. A compression spring 8 is connected to the fitting plate 7, and one end of the compression spring 8 is connected to the pipeline 1 402. A through hole 2 is provided on the tailstock 205. 07. A reflux groove 403 is provided inside the high-frequency box 201. Because the entire placement rack 204 is capable of circulating flow, the bonding plate 7 is provided. First, it can be positioned through the arc surface below so that the operator can check whether the placement rack 204 has reached the appropriate position. Second, it can cover the through hole 207 on the tailstock 205 so that the pipeline 1 402 can be connected to the tailstock 205. The liquid medium will enter the pipeline 1 402 from the position of the through hole 207, and then flow back to the inside of the water tank 6 through the reflux groove 403 through the high-frequency box 201 again. Therefore, the entire quenching medium will form a reflux state to ensure the effect of the alloy material after quenching. This kind of pipeline flow can greatly improve the quenching effect and improve the performance of the metal material.

[0023] In addition, the airflow component 5 is used to provide power for the cooling component and generate airflow to cool the alloy material. The airflow component 5 also includes a fixed box 506, which is fixed on the high-frequency box 201. The fixed box 506 is connected to a fourth gear 505 through an axis rod, and the fourth gear 505 is meshed with a third gear 504. The third gear 504 is connected to the end face of the drive shaft 502. The bottom of the fixed box 506 is connected to a pipeline 2 507, and one end of the pipeline 2 507 is connected to the sleeve 1 203. The rotation of the drive motor 501 will drive the blades inside the fixed box 506 to rotate through the meshing transmission of the bevel gear, and the rotation of the internal blades will generate airflow, providing a prerequisite for subsequent cooling.

[0024] It is worth noting that see Figure 8The bottom of the fixed box 506 is connected to the pipeline three 510, and the end face of the pipeline three 510 is slidably connected to the cooling box 511, the cooling box 511 is connected to the water tank 6, and the cooling box 511 is provided with a vent 513, and the bottom of the cooling box 511 is provided with a plurality of cooling ports 512. A part of the airflow will flow out from the position of the pipeline three 510. When the high-frequency box 201 is in a merged state, the pipeline three 510 will slide on the cooling box 511, and the port is in a closed state. When it is open, the port of the pipeline three 510 is located above the vent 513. At this time, the airflow will enter the interior of the cooling box 511 through the vent 513, and then act on the water tank 6 from the plurality of cooling ports 512 arranged at the bottom of the cooling box 511, so the airflow will cool the medium in the water tank 6.

[0025] The fixed box 506 is connected to an air pipe 508, one end of the air pipe 508 is connected to the hollow seat 301, and one side of the hollow seat 301 is connected to an air nozzle 509. Another part of the airflow will be input into the interior of the hollow seat 301 through the air pipe 508, and the airflow will eventually flow out from the two air nozzles 509, and then act on the external placement rack 204. At this time, the alloy material after quenching will be blown by the airflow, which will reduce its cooling time and enable it to be used quickly.

[0026] Example 2 A high temperature alloy forging heat treatment method Step S1: preparing materials, placing the alloy materials to be heat treated on a plurality of free placement racks 204; Step S2: Closed heating, pushing the high-frequency box 201 to move horizontally, using the sleeve 203 to slide on the placement rack 204, wrapping the alloy material inside, forming a closed space inside, and then starting the high-frequency heating coil 202, using the high-frequency induction coil heating method to perform high-temperature heat treatment on the alloy material; Step S3: The airflow rotates, and the driving motor 501 is started to drive the high-frequency heating coil 202 to rotate through the meshing of the gears, so as to heat the alloy material evenly. At the same time, the blades of the fixed box 506 will generate airflow through the rotation of the driving motor 501. The airflow will be introduced into the interior of the sleeve 1 203 through the pipeline 2 507, and then led out from the pipeline at the other end; Step S4: resetting the feeding; controlling the resetting of the high frequency box 201, the circulation component 3 rotates the feeding, and the material at the outside continues to move to one side of the high frequency heating coil 202, and the heated alloy material will be transferred to the alignment position of the sleeve 2 401; Step S5: secondary heating and primary cooling, controlling the sliding merging of the high frequency box 201, the alloy material inside the first sleeve 203 will be subjected to high temperature heat treatment, and the quenching medium will be directly injected into the second sleeve 401 to perform reflux quenching in the tube; Step S6: Discharging: After quenching is completed, the alloy material is taken out.

[0027] The electrical components mentioned in this article are all connected to an external main controller and 220V mains electricity, and the main controller can be a conventional known device for controlling a computer or the like.

[0028] Working principle: first, the alloy material to be processed needs to be placed on the empty placement rack 204, and then the high-frequency box 201 is pushed to slide to the left, and the entire sleeve 203 will be directly set on the placement rack 204. Then the high-frequency heating coil 202 is energized. With the generation of electromagnetic induction and eddy current effect, the internal alloy material will heat up at a very fast speed. After heating to the required temperature, it will be kept warm for a period of time. At this time, when the drive motor 501 rotates, the first gear 208 will be driven to rotate through the meshing of the gears, and the first gear 208 will drive the high-frequency heating coil 202 to rotate, so that the overall heating can be uniform, ensuring that the crystal transformation inside the alloy material is complete. After high-temperature heat treatment, open the high-frequency box 201 to expose the alloy material on the placement rack 204. After that, the electric device inside the control circulation component 3 is started, and through the transmission of the chain and the sprocket, it will drive the placement rack 204 to move in a circular shape for a certain distance, and the heat-treated alloy material will move to the end surface position of the second sleeve 401, and the other set of placement racks 204 outside will move to the high-temperature treatment working area, and then the high-frequency box 201 will be merged again, and the metal material on the placement rack 204 inside the second sleeve 401 will be closed with the second sleeve 401, and then with the rotation of the driving motor 501, the second gear 406 will be driven to rotate through the meshing of the gears, and the second gear 406 will drive the rotation of the turbine 405, and the turbine 405 will generate suction, which will pass through the pipeline, that is, the suction pipe 404. The quenching liquid medium inside the water tank 6 is sucked into the inside of the second sleeve 401, and then passes through the internal channel and gradually fills the second sleeve 401. At this time, the medium will act on the alloy material for quenching. When it is full, the liquid medium will enter the position of the pipeline 1 402 from the position of the through hole 207, and then flow back to the inside of the water tank 6 through the high-frequency box 201 and the reflux groove 403 again. Therefore, the entire quenching medium will form a reflux state to ensure the effect of the alloy material after quenching. Because the transmission method is directly placed in the quenching medium, the surrounding will be assimilated by the high-temperature alloy material, so the effect after quenching is not good, and this kind of pipeline flow can greatly improve the quenching effect and improve the performance of the metal material. The entire device is also provided with an airflow component 5, which uses the generated airflow to cool the medium and cool the alloy material. First, the rotation of the driving motor 501 will drive the blades inside the fixed box 506 to rotate through the meshing transmission of the bevel gear, and the rotation of the internal blades will generate airflow, and then a part of the airflow will be transported to the inside of the sleeve 1 203 through the pipeline 2 507 below, so that when the sleeve 1 203 is subjected to high-temperature treatment, the internal airflow will also follow the pipeline to form a reflux state, thereby increasing the air intake under high temperature and improving the effect of high-temperature treatment.After that, another part of the airflow will be input into the inside of the hollow seat 301 through the air pipe 508, and the airflow will finally flow out from the two air nozzles 509, and then act on the external placement rack 204. At this time, the alloy material after quenching will be blown by the airflow, which will reduce its cooling time and enable it to be used quickly. After that, another part of the airflow will flow out from the position of pipeline three 510. When the high-frequency box 201 is in a merged state, pipeline three 510 will slide on the cooling box 511, and the port is in a closed state. When it is open, the port of pipeline three 510 is located above the vent 513. At this time, the airflow will enter the interior of the cooling box 511 through the vent 513, and then act on the water tank 6 from the multiple cooling ports 512 set at the bottom of the cooling box 511, so the airflow will cool the medium in the water tank 6.

[0029] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, the elements defined by the sentence "comprise a ..." do not exclude the existence of other identical elements in the process, method, article or device including the elements.

Claims

1. A high temperature alloy forging heat treatment system, characterized in that: include Workbench (1); A heating component (2) is used to perform high-frequency heating treatment on the alloy material; A circulation component (3) is used for circulating the alloy material; A cooling component (4) is used to perform quenching heat treatment on the alloy material after high-frequency heat treatment; The airflow component (5) is used to provide power for the cooling component and to generate airflow to cool the alloy material.

2. A high temperature alloy forging heat treatment system and method according to claim 1, characterized in that: The heating component (2) comprises a high-frequency box (201), a high-frequency heating coil (202) is arranged inside the high-frequency box (201), a sleeve (203) is arranged inside the high-frequency heating coil (202), a placement rack (204) is arranged on the left side of the sleeve (203), a tailstock (205) is connected to the left end of the placement rack (204), a slide (206) is connected to the tailstock (205), and the slide (206) is connected to the circulation component (3).

3. A high temperature alloy forging heat treatment system according to claim 2, characterized in that: The bottom of the high-frequency box (201) is slidably connected to the workbench (1) via a slide rail (9); control keys are provided on the high-frequency box (201); and a transparent window (10) is provided on the high-frequency box (201).

4. A high temperature alloy forging heat treatment system and method according to claim 2, characterized in that: The circulation component (3) comprises a hollow seat (301), a power member is mounted on the hollow seat (301), an output end of the power member is connected to a connecting shaft (303), the connecting shaft (303) is connected to two sprocket wheels 1 (302), the sprocket wheel 1 (302) is connected to a sprocket wheel 2 (305) via a chain, the sprocket wheel 2 (305) is connected to the hollow seat (301) via a transmission shaft (304), and the chain is fixedly connected to a sliding seat (206).

5. A high temperature alloy forging heat treatment system according to claim 4, characterized in that: The airflow component (5) comprises a driving motor (501), the output end of the driving motor (501) is connected to a driving shaft (502), the driving shaft (502) is connected to a driving gear (503), the driving gear (503) is meshed with a first gear (208), and the first gear (208) is connected to the sleeve 1 (203).

6. A high temperature alloy forging heat treatment system according to claim 5, characterized in that: The cooling assembly (4) comprises a second sleeve (401), the second sleeve (401) being arranged inside the high frequency box (201), the second sleeve (401) being rotatably connected to a second gear (406) which meshes with a driving gear (503) for transmission, one side of the second gear (406) being located inside the second sleeve (401) and connected to a turbine (405), the second sleeve (401) being connected to a suction pipe (404), the suction pipe (404) One end extends below the liquid level of the water tank (6); the high-frequency box (201) is slidably connected to a pipeline 1 (402) inside; one end of the pipeline 1 (402) is slidably connected to a bonding plate (7); a compression spring (8) is connected to the bonding plate (7); one end of the compression spring (8) is connected to the pipeline 1 (402); a through hole (207) is provided on the tail seat (205); and a reflux groove (403) is provided inside the high-frequency box (201).

7. A high temperature alloy forging heat treatment system according to claim 6, characterized in that: The airflow component (5) further comprises a fixed box (506), wherein the fixed box (506) is fixed on the high frequency box (201), wherein a fourth gear (505) is connected to the fixed box (506) via a shaft, wherein a third gear (504) is meshed with the fourth gear (505), wherein the third gear (504) is connected to the end face of the drive shaft (502), and wherein the bottom of the fixed box (506) is connected to a second pipeline (507), wherein one end of the second pipeline (507) is connected to the first sleeve (203).

8. A high temperature alloy forging heat treatment system according to claim 7, characterized in that: The bottom of the fixed box (506) is connected to a pipeline three (510), the end surface of the pipeline three (510) is slidably connected to a cooling box (511), the cooling box (511) is connected to the water tank (6), a vent (513) is provided on the cooling box (511), and a plurality of cooling ports (512) are provided at the bottom of the cooling box (511).

9. A high temperature alloy forging heat treatment system according to claim 8, characterized in that: The fixed box (506) is connected to an air pipe (508), one end of the air pipe (508) is connected to the hollow seat (301), and one side of the hollow seat (301) is connected to an air nozzle (509).

10. A high temperature alloy forging heat treatment method, characterized in that: The high temperature alloy forging heat treatment system comprises any one of the above-mentioned steps, further comprising the following steps: Step S1: preparing materials, placing alloy materials that need to be heat treated on a plurality of free placement racks (204); Step S2: closed heating, pushing the high-frequency box (201) to move horizontally, using the sleeve (203) to slide on the placement rack (204), wrapping the alloy material inside, forming a closed space inside, and then starting the high-frequency heating coil (202) to perform high-temperature heat treatment on the alloy material by heating with a high-frequency induction coil; Step S3: The airflow rotates, and the driving motor (501) is started to drive the high-frequency heating coil (202) to rotate through the meshing of the gears, so as to evenly heat the alloy material. At the same time, the blades of the fixed box (506) are rotated by the driving motor (501), which will generate airflow. The airflow will be introduced into the interior of the sleeve one (203) through the pipeline two (507), and then led out from the pipeline at the other end; Step S4: resetting the feeding; controlling the high frequency box (201) to reset, the circulation component (3) rotates to feed, and the material outside continues to move to one side of the high frequency heating coil (202), and the heated alloy material will be transferred to the alignment position of the second sleeve (401); Step S5: secondary heating and primary cooling, controlling the sliding merging of the high frequency box (202), the alloy material inside the first sleeve (203) will be subjected to high temperature heat treatment, and the quenching medium will be directly injected into the inside of the second sleeve (401), and reflux quenching will be performed in the tube; Step S6: Discharging: After quenching is completed, the alloy material is taken out.

Images