A high-frequency inductor heat dissipation embedding device

Abstract

The present invention discloses a high-frequency inductor heat dissipation embedding device, belonging to the technical field of inductor heat dissipation, which includes a heat exchange cylinder for dissipating heat from the inner ring of the inductor device and a cooling chamber for storing cooling water. A transition chamber ring is arranged above the heat exchange cylinder, and a circulating flow component for dissipating heat from the outer ring of the inductor device is arranged in the transition chamber ring. Through the setting of the solenoid valve block and the atomization component, the present invention can use the pressure on the elastic bladder to spray the cooling water in the state of water mist and attach it to the inner side wall of the heat exchange cylinder, facilitating the subsequent accumulation and condensation of the water mist to take away the heat energy on the inner ring of the inductor device, realizing the rapid heat dissipation and temperature reduction of the inner ring of the inductor device. At the same time, through the setting of the drainage pipe and the heat insulation component, the water flow after heat dissipation can be introduced into the space on the heat insulation ring by using the drainage pipe, separating and quickly cooling the water flow after heat dissipation, realizing the circulation of the cooling water in the whole heat exchange and cooling process, and facilitating the continuous heat exchange and cooling of the inductor device.

Description

Technical Field

[0001] The present invention relates to the technical field of inductor heat dissipation, and particularly relates to a high-frequency inductor heat dissipation embedding device. Background Art

[0002] An inductor is a component that can convert electrical energy into magnetic energy and store it. Under high-frequency conditions, the change in current is faster, resulting in an increase in resistance loss and thus generating more heat. At the same time, under high-frequency conditions, the magnetization and demagnetization processes of the magnetic core are faster, leading to an increase in hysteresis loss. Therefore, high-frequency inductors are more likely to generate heat during use.

[0003] Currently, when dissipating heat from an inductor, heat sinks are usually designed on the circuit board to enhance the heat dissipation capacity of the inductor, or a cooling fan is used to make the air around the inductor flow for heat dissipation. However, when using a heat sink for heat dissipation, there is a need for the correct operation of applying thermal grease, and there may be a large contact thermal resistance between the heat sink and the inductor, which will affect the heat conduction efficiency. At the same time, the heat sink requires a continuous process for heat dissipation and cannot conduct and dissipate heat quickly. Moreover, when using air circulation for inductor heat dissipation, due to the determined air flow direction, only the heat energy on the contact surface of the inductor can be taken away by the air flow first, resulting in uneven heat dissipation of the inductor during the air flow process, low heat dissipation efficiency, and easy occurrence of a large temperature drift of the inductor. Therefore, a high-frequency inductor heat dissipation embedding device is proposed. Summary of the Invention

[0004] The purpose of the present invention is to solve the problems in the prior art that when using a heat sink for heat dissipation, there is a need for the correct operation of applying thermal grease, and there may be a large contact thermal resistance between the heat sink and the inductor, which will affect the heat conduction efficiency. At the same time, the heat sink requires a continuous process for heat dissipation and cannot conduct and dissipate heat quickly. Moreover, when using air circulation for inductor heat dissipation, due to the determined air flow direction, only the heat energy on the contact surface of the inductor can be taken away by the air flow first, resulting in uneven heat dissipation of the inductor during the air flow process, low heat dissipation efficiency, and easy occurrence of a large temperature drift of the inductor. The present invention proposes a high-frequency inductor heat dissipation embedding device.

[0005] To achieve the above object, the present invention adopts the following technical solutions:

[0006] A high-frequency inductor heat dissipation embedding device includes a heat exchange cylinder for dissipating heat from the inner ring of the inductor device and a cooling chamber for storing cooling water. A transition chamber ring is arranged above the heat exchange cylinder. A circulation component for dissipating heat from the outer ring of the inductor device is arranged in the transition chamber ring. The inner end surface of the transition chamber ring is connected with a solenoid valve block through a plurality of adjusting telescopic rods. A liquid injection pipe is arranged below the solenoid valve block. The inner side wall of the top end of the liquid injection pipe is connected with a magnetic flux plate. Below the magnetic flux plate, an atomization component for spraying the cooling water onto the inner side wall of the heat exchange cylinder is arranged.

[0007] A piston pressing plate for pressing the air flow in the heat exchange cylinder is arranged on the outer side wall of the liquid injection pipe. A plurality of piston holes are opened on the piston pressing plate. The inner side wall of the piston hole is connected with a drainage pipe. The bottom end of the drainage pipe is located on the inner end surface of the heat exchange cylinder. An insulation component for re-cooling the cooling water after heat dissipation is arranged in the cooling chamber.

[0008] Preferably, the heat exchange cylinder is fixedly connected with the inner side wall of the transition chamber ring through the liquid injection pipe. The top end of the transition chamber ring is fixedly connected with the bottom end of the cooling chamber through a liquid inlet hopper and is mutually communicated.

[0009] Preferably, the circulation component is composed of a piston ring and a plurality of oblique air flow pipes. The piston ring is fixedly connected with the outer side wall of the piston rod of the adjusting telescopic rod. The piston ring is slidably connected with the inner side wall of the chamber of the transition chamber ring. The plurality of oblique air flow pipes are arranged in a circular array and are mutually communicated with the chamber of the transition chamber ring.

[0010] Preferably, the top end of the adjusting telescopic rod is fixedly connected with the top end of the solenoid valve block through a flat plate. A control power supply is arranged in the solenoid valve block. A temperature sensor for monitoring the temperature of the inductor device is arranged on the inner side wall of the heat exchange cylinder.

[0011] Preferably, the atomization component is composed of an elastic capsule body and a plurality of atomization nozzles. A water permeable membrane facilitating the infiltration of cooling water is arranged on the upper end surface of the elastic capsule body. The bottom end of the solenoid valve block is fixedly connected with a fine hole pressing plate through a vertical rod. The fine hole pressing plate is located at the top of the elastic capsule body.

[0012] Preferably, the elastic capsule body and the plurality of atomization nozzles are mutually communicated. A plurality of spray holes are opened on the side wall of the liquid injection pipe located below. The inner side wall of the spray hole is fixedly connected with the outer side wall of the atomization nozzle.

[0013] Preferably, the side wall of the elastic capsule body is fixedly connected with the inner side wall of the piston pressing plate through a plurality of sliding plates. A plurality of sliding grooves are opened on the side wall of the liquid injection pipe located below. Two limiting plates are fixedly connected to the outer side wall of the piston pressing plate. Two guide grooves adapted to the limiting plates are opened on the inner side wall of the heat exchange cylinder.

[0014] Preferably, the thermal insulation assembly consists of a thermal insulation ring and a trapezoidal cover, the inner wall of the cooling chamber is fixedly connected to a guide ring, the top end of the drainage pipe is arranged through the top end of the guide ring, the outer wall of the thermal insulation ring is fixedly connected to the inner wall of the guide ring, and the top end of the thermal insulation ring is fixedly connected to the bottom end of the trapezoidal cover.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] 1. Through the arrangement of the circulation assembly and the transition cavity ring, the present invention can utilize the piston ring to pressurize the inner wall of the transition cavity ring, and blow the pressurized airflow through the oblique airflow pipe to the outer ring of the inductor device for multiple times, thereby facilitating the heat dissipation on the outer ring of the inductor device.

[0017] 2. Through the setting of the electromagnetic valve block and the atomization component, this scheme can use the pressure-driven elastic capsule to spray the cooling water in the form of water mist and attach it to the inner wall of the heat exchange tube, so as to facilitate the subsequent accumulation and condensation of the water mist to take away the heat energy on the inner ring of the inductor device, thereby achieving rapid heat dissipation and cooling of the inner ring of the inductor device, and allowing the inner and outer rings of the inductor device to be cooled synchronously.

[0018] 3. Through the provision of drainage pipes and thermal insulation components, this solution can utilize the drainage pipes to direct the water flow after heat dissipation into the space on the thermal insulation ring, separate the water flow after heat dissipation and quickly cool it, thereby realizing the cooling water circulation in the entire heat exchange cooling process, and facilitating the continuous heat exchange cooling of the inductor device. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 A schematic diagram of the structure of a high-frequency inductor heat dissipation embedding device proposed by the present invention;

[0020] Figure 2 An assembly diagram of a high-frequency inductor heat dissipation embedded device proposed by the present invention;

[0021] Figure 3 for Figure 2 The enlarged view of point A in the middle;

[0022] Figure 4 This is a schematic diagram of the structure of the two ends of the guide tube in a high-frequency inductor heat dissipation embedding device proposed by the present invention;

[0023] Figure 5 This is a schematic diagram of the structure of a high-frequency inductor heat dissipation embedded in a transition cavity ring in a device proposed by the present invention;

[0024] Figure 6 This is a schematic diagram of the structure of an atomization component in a high-frequency inductor heat dissipation embedded device proposed by the present invention;

[0025] Figure 7Schematic diagram of the internal structure of the liquid injection pipe in a high-frequency inductor heat dissipation embedding device proposed by the present invention;

[0026] Figure 8 Schematic diagram of the internal structure in the cooling chamber of a high-frequency inductor heat dissipation embedding device proposed by the present invention.

[0027] In the figure: 1, heat exchange cylinder; 2, cooling chamber; 3, inductor component; 4, liquid inlet hopper; 5, transition chamber ring; 6, adjusting telescopic rod; 7, solenoid valve block; 8, piston ring; 9, oblique air flow pipe; 10, liquid injection pipe; 11, fine hole pressing plate; 12, magnetic flux plate; 13, elastic capsule; 14, atomizing nozzle; 15, piston pressing plate; 16, limiting plate; 17, drainage pipe; 18, guiding ring; 19, heat insulation ring; 20, frustum-shaped enclosure. Specific embodiments

[0028] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0029] In the description of the present invention, it should be noted that the orientation or positional relationship indicated by the terms "upper", "lower", "inner", "outer", "top / bottom end", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present invention. In addition, the terms "first" and "second" are only used for descriptive purposes and cannot be understood as indicating or implying relative importance.

[0030] In the description of the present invention, it should be noted that unless otherwise clearly specified and limited, the terms "installed", "provided with", "sheathed / connected", "connected", etc. should be understood in a broad sense. For example, "connected" can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be directly connected or indirectly connected through an intermediate medium, and it can be the communication inside two elements. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific situations.

[0031] Example, referring to Figures 1 to 8 , a high-frequency inductor heat dissipation embedding device, includes a heat exchange cylinder 1 for dissipating heat from the inner ring of the inductor component 3 and a cooling chamber 2 for storing cooling water. A transition chamber ring 5 is arranged above the heat exchange cylinder 1, and a circulating flow component for dissipating heat from the outer ring of the inductor component 3 is arranged in the transition chamber ring 5;

[0032] Further, the heat exchange cylinder 1 is fixedly connected to the inner wall of the transition chamber ring 5 through the liquid injection pipe 10, the top of the transition chamber ring 5 is fixedly connected to the bottom of the cooling chamber 2 through the liquid inlet hopper 4, and they are interconnected, the circulation assembly is composed of a piston ring 8 and a plurality of oblique airflow tubes 9, the piston ring 8 is fixedly connected to the outer wall of the piston rod of the adjustment telescopic rod 6, the piston ring 8 is slidably connected to the inner wall of the chamber of the transition chamber ring 5, and the plurality of oblique airflow tubes 9 are arranged in a ring array and are interconnected with the chamber of the transition chamber ring 5;

[0033] It should be noted that: when the operating temperature of the inductor 3 exceeds the normal operating temperature, the temperature sensor arranged on the inner wall of the heat exchange cylinder 1 will transmit a signal to start the control power supply located in the solenoid valve block 7, and use the control power supply to intermittently energize the electromagnet at the bottom end of the solenoid valve block 7. When the electromagnet at the bottom end of the solenoid valve block 7 is energized, it will repel each other with the magnetic flux plate 12 (the magnetic poles of the electromagnet after energization are the same as those of the opposite ends of the magnetic flux plate 12), and the solenoid valve block 7 will drive the adjustment telescopic rod 6 to move upward through the flat plate, so that the solenoid valve block 7 and the top end of the injection pipe 10 are connected. Disengagement makes the top of the injection pipe 10 open, so that the cooling water in the cooling chamber 2 enters the injection pipe 10 through the liquid inlet hopper 4, and the cooling water then continuously enters the inside of the elastic capsule 13 through the water-permeable membrane on the top of the elastic capsule 13. After the intermittent power failure of the control power supply, the solenoid valve block 7 loses its magnetism and will be quickly pressed down under the action of the adjustable telescopic rod 6. In this process, the adjustable telescopic rod 6 will drive the piston ring 8 to move downward, press the space of the transition chamber ring 5, and thus discharge the flowing airflow through multiple oblique airflow pipes 9 to take away the heat energy of the outer ring of the inductor 3;

[0034] The above advantages are as follows: in this way, the piston ring 8 can be used to press the inner wall of the transition chamber ring 5, and the pressurized air flow can be blown to the outer ring of the inductor 3 through the oblique air flow pipe 9 for multiple times, so as to facilitate heat dissipation on the outer ring of the inductor 3;

[0035] The inner end surface of the transition cavity ring 5 is connected to a solenoid valve block 7 through a plurality of adjustable telescopic rods 6, a liquid injection pipe 10 is provided below the solenoid valve block 7, a magnetic flux plate 12 is connected to the inner side wall of the top end of the liquid injection pipe 10, and an atomizing component for spraying cooling water onto the inner side wall of the heat exchange cylinder 1 is provided below the magnetic flux plate 12;

[0036] Furthermore, the top end of the telescopic rod 6 is fixedly connected to the top end of the solenoid valve block 7 through a flat plate. A control power supply is arranged inside the solenoid valve block 7. A temperature sensor for monitoring the temperature of the inductor device 3 is arranged on the inner side wall of the heat exchange cylinder 1. When the temperature sensor senses that the temperature of the inductor device 3 rises and exceeds the safe operating temperature, it will transmit a signal to activate the control power supply inside the solenoid valve block 7. The atomization assembly is composed of an elastic bladder 13 and a plurality of atomizing nozzles 14. A water-permeable membrane facilitating the infiltration of cooling water is arranged on the upper end surface of the elastic bladder 13. The bottom end of the solenoid valve block 7 is fixedly connected to a fine-hole pressing plate 11 through a vertical rod. The fine-hole pressing plate 11 is located at the top of the elastic bladder 13. The elastic bladder 13 and the plurality of atomizing nozzles 14 are interconnected. A plurality of spray holes are formed in the side wall of the liquid injection pipe 10 at the lower part. The inner side wall of the spray holes is fixedly connected to the outer side wall of the atomizing nozzles 14;

[0037] It should be noted that: during the process of the solenoid valve block 7 losing magnetism and quickly moving downward, it will drive the fine-hole pressing plate 11 to press the top of the elastic bladder 13 through the vertical rod, so as to press the cooling water in the elastic bladder 13 into the plurality of atomizing nozzles 14, thereby spraying the cooling water in the form of water mist. The sprayed cooling water mist will adhere and accumulate on the inner side wall of the heat exchange cylinder 1. As the cooling water mist continuously accumulates, it will condense into water droplets and slide down, continuously taking away the heat energy on the inner ring of the inductor device 3, realizing the rapid heat dissipation and cooling of the inner ring of the inductor device 3;

[0038] Based on the above advantages: in this way, the elastic bladder 13 can be pressed to spray the cooling water in the form of water mist, which adheres to the inner side wall of the heat exchange cylinder 1, facilitating the subsequent accumulation and condensation of the water mist to take away the heat energy on the inner ring of the inductor device 3, realizing the rapid heat dissipation and cooling of the inner ring of the inductor device 3, and enabling the inner and outer rings of the inductor device 3 to be cooled synchronously;

[0039] A piston pressing plate 15 for pressing the air flow inside the heat exchange cylinder 1 is arranged on the outer side wall of the liquid injection pipe 10. A plurality of piston holes are formed in the piston pressing plate 15. The inner side wall of the piston holes is connected to a drainage pipe 17. The bottom end of the drainage pipe 17 is located on the inner end surface of the heat exchange cylinder 1. An insulating component for re-cooling the cooled cooling water is arranged in the cooling chamber 2;

[0040] Furthermore, the side wall of the elastic bladder 13 is fixedly connected to the inner side wall of the piston pressing plate 15 through a plurality of sliding plates. A plurality of sliding grooves are formed in the side wall of the liquid injection pipe 10 located below. The sliding grooves facilitate the sliding of the sliding plates. In the normal state, the elastic bladder 13 is adapted to the liquid injection pipe 10, and the connection part between it and the piston pressing plate 15 through the sliding plates is a fixed ring structure, ensuring that the sliding of the piston pressing plate 15 will not get stuck. Two limiting plates 16 are fixedly connected to the outer side wall of the piston pressing plate 15. Two guiding grooves adapted to the limiting plates 16 are formed in the inner side wall of the heat exchange cylinder 1. The heat insulation component is composed of a heat insulation ring 19 and a frustum-shaped shroud 20. A guiding ring 18 is fixedly connected to the inner side wall of the cooling chamber 2. The top end of the drainage pipe 17 penetrates through the top end of the guiding ring 18. The outer side wall of the heat insulation ring 19 is fixedly connected to the inner side wall of the guiding ring 18. The top end of the heat insulation ring 19 is fixedly connected to the bottom end of the frustum-shaped shroud 20;

[0041] It should be noted that: during the process of pressing the elastic bladder 13 for heat dissipation, the piston pressing plate 15 will be pressed down with the elastic deformation of the elastic bladder 13, thereby pressing the gas and accumulated water below the piston pressing plate 15. After the water mist on the inner wall of the heat exchange cylinder 1 above the piston pressing plate 15 condenses, it will seep downward along the sliding edge of the piston pressing plate 15 and the heat exchange cylinder 1. When the piston pressing plate 15 is pressed down, the water flow at a higher temperature after heat exchange will be pressed into the drainage pipe 17. Then, the water flow at a higher temperature will flow through the drainage pipe 17 and pass through the guiding ring 18 into the space above the heat insulation ring 19. The upper end surface of the heat insulation ring 19 is made of a heat-conducting metal material, which is convenient for quickly cooling the water flow flowing out of the drainage pipe 17. After the imported water flow continuously accumulates and exceeds the height of the frustum-shaped shroud 20, during the accumulation process, the water flow has been re-cooled into cooling water and flows down from the top of the frustum-shaped shroud 20 into the bottom space of the cooling chamber 2, facilitating subsequent re-entering the heat exchange cylinder 1 for heat dissipation by opening the solenoid valve block 7;

[0042] Based on the above advantages: in this way, the drainage pipe 17 can be used to introduce the water flow after heat dissipation into the space on the heat insulation ring 19, separate and quickly cool the water flow after heat dissipation, realize the circulation of the cooling water in the whole heat exchange and cooling process, and facilitate the continuous heat exchange and cooling of the inductor component 3;

[0043] When the present invention is in use, when the operating temperature of the inductor device 3 exceeds the normal operating temperature, the temperature sensor provided on the inner side wall of the heat exchange cylinder 1 will transmit a signal to activate the control power supply located in the solenoid valve block 7. The control power supply is used to intermittently energize the electromagnet at the bottom end of the solenoid valve block 7. When the electromagnet at the bottom end of the solenoid valve block 7 is energized, it will be magnetically repelled by the magnetic flux plate 12 (the poles of the energized electromagnet and the magnetic flux plate 12 at the opposite ends are the same). Then, the solenoid valve block 7 will drive the adjusting telescopic rod 6 to move upward through the flat plate, so that the solenoid valve block 7 is separated from the top end of the liquid injection pipe 10, and the top end of the liquid injection pipe 10 is opened. Thus, the cooling water in the cooling chamber 2 enters the liquid injection pipe 10 through the liquid inlet hopper 4. The cooling water continuously enters the inside of the elastic bladder 13 through the water permeable membrane at the top of the elastic bladder 13. After the control power supply is intermittently de-energized, the solenoid valve block 7 loses its magnetism and will quickly press down under the action of the adjusting telescopic rod 6. During this process, the adjusting telescopic rod 6 will drive the piston ring 8 to move downward, pressing the space of the transition chamber ring 5, and thus discharging the flowing air through a plurality of inclined air flow pipes 9 to take away the heat energy on the outer ring of the inductor device 3. In this way, the piston ring 8 can be used to press in the inner side wall of the chamber of the transition chamber ring 5, and the pressurized air is blown to the outer ring of the inductor device 3 through the inclined air flow pipes 9 multiple times, which is convenient for realizing the heat dissipation on the outer ring of the inductor device 3;

[0044] During the process of the solenoid valve block 7 losing its magnetism and quickly moving downward, it will drive the fine hole pressing plate 11 to press the top of the elastic bladder 13 through the vertical rod, and press the cooling water in the elastic bladder 13 into a plurality of atomizing nozzles 14, so as to spray the cooling water in the form of water mist. The sprayed cooling water mist will adhere and accumulate on the inner side wall of the heat exchange cylinder 1. As the cooling water mist continuously accumulates, it will condense into water droplets and slide down, continuously taking away the heat energy on the inner ring of the inductor device 3, realizing the rapid heat dissipation and temperature reduction of the inner ring of the inductor device 3. In this way, the elastic bladder 13 can be used to spray the cooling water in the form of water mist, which adheres to the inner side wall of the heat exchange cylinder 1, facilitating the subsequent accumulation and condensation of the water mist to take away the heat energy on the inner ring of the inductor device 3, realizing the rapid heat dissipation and temperature reduction of the inner ring of the inductor device 3, and enabling the inner and outer rings of the inductor device 3 to be cooled synchronously;

[0045] During the process of pressing and dissipating heat from the elastic bladder 13, the piston pressing plate 15 will be pressed down with the elastic deformation of the elastic bladder 13, thereby pressing the gas and accumulated water below the piston pressing plate 15. After the water mist on the inner wall of the heat exchange cylinder 1 above the piston pressing plate 15 condenses, it will seep downward along the sliding edge of the piston pressing plate 15 and the heat exchange cylinder 1. The downward pressure of the piston pressing plate 15 will press the water flow at a higher temperature after heat exchange into the drainage pipe 17. Then, the water flow at a higher temperature will flow through the drainage pipe 17 and pass through the guide ring 18 into the space above the heat insulation ring 19. The upper end surface of the heat insulation ring 19 is made of a heat-conducting metal material, which is convenient for quickly cooling the water flow flowing out of the drainage pipe 17. After the imported water flow continuously accumulates and exceeds the height of the frustum-shaped shroud 20, during the accumulation process, the water flow has been re-cooled into cooling water and flows down from the top of the frustum-shaped shroud 20 into the bottom space of the cooling chamber 2, which is convenient for re-entering the heat exchange cylinder 1 through the opening of the solenoid valve block 7 for heat dissipation later. In this way, the drainage pipe 17 can be used to introduce the water flow after heat dissipation into the space on the heat insulation ring 19, separate the water flow after heat dissipation and quickly cool it, realizing the circulation of the cooling water in the entire heat exchange and cooling process, and facilitating the continuous heat exchange and cooling of the inductor device 3.

[0046] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. A high-frequency inductor heat dissipation embedding device, comprising a heat exchange cylinder (1) for dissipating heat inside the inner ring of an inductor component (3) and a cooling chamber (2) for storing cooling water, characterized in that, Above the heat exchange cylinder (1), a transition cavity ring (5) is provided. Inside the transition cavity ring (5), a circulating flow component for dissipating heat from the outer ring of the inductor device (3) is provided. The inner end surface of the transition cavity ring (5) is connected to a solenoid valve block (7) through a plurality of adjusting telescopic rods (6). Below the solenoid valve block (7), a liquid injection pipe (10) is provided. The inner side wall of the top end of the liquid injection pipe (10) is connected to a magnetic flux plate (12). Below the magnetic flux plate (12), an atomizing component for spraying cooling water onto the inner side wall of the heat exchange cylinder (1) is provided. On the outer side wall of the liquid injection pipe (10), a piston pressing plate (15) for pressing the air flow inside the heat exchange cylinder (1) is provided. A plurality of piston holes are formed in the piston pressing plate (15). The inner side wall of the piston hole is connected to a diversion pipe (17). The bottom end of the diversion pipe (17) is located on the inner end surface of the heat exchange cylinder (1). Inside the cooling chamber (2), a heat insulation component for re-cooling the cooling water after heat dissipation is provided. The circulating flow component is composed of a piston ring (8) and a plurality of obliquely arranged air flow pipes (9). The piston ring (8) is fixedly connected to the outer side wall of the piston rod of the adjusting telescopic rod (6). The piston ring (8) is slidably connected to the inner side wall of the cavity of the transition cavity ring (5). The plurality of obliquely arranged air flow pipes (9) are arranged in a circular array and communicate with the cavity of the transition cavity ring (5). The atomizing component is composed of an elastic bladder (13) and a plurality of atomizing nozzles (14). The upper end surface of the elastic bladder (13) is provided with a water permeable membrane for facilitating the infiltration of cooling water. The bottom end of the solenoid valve block (7) is fixedly connected to a fine hole pressing plate (11) through a vertical rod. The fine hole pressing plate (11) is located at the top of the elastic bladder (13).

2. The heat dissipation embedding device of a high-frequency inductor according to claim 1, wherein, The heat exchange cylinder (1) is fixedly connected to the inner side wall of the transition cavity ring (5) through the liquid injection pipe (10). The top end of the transition cavity ring (5) is fixedly connected to the bottom end of the cooling chamber (2) through a liquid inlet hopper (4) and is in communication with each other.

3. The heat dissipation embedding device of a high-frequency inductor according to claim 1, characterized in that, The top end of the adjusting telescopic rod (6) is fixedly connected to the top end of the solenoid valve block (7) through a flat plate. A control power supply is provided inside the solenoid valve block (7). A temperature sensor for monitoring the temperature of the inductor device (3) is provided on the inner side wall of the heat exchange cylinder (1).

4. A high-frequency inductor heat dissipation embedding device according to claim 1, characterized in that, The elastic bladder (13) and the plurality of atomizing nozzles (14) communicate with each other. A plurality of spray holes are formed in the side wall of the liquid injection pipe (10) at the lower part. The inner side wall of the spray hole is fixedly connected to the outer side wall of the atomizing nozzle (14).

5. A high-frequency inductor heat dissipation embedding device according to claim 1, characterized in that, The side wall of the elastic bladder (13) is fixedly connected to the inner side wall of the piston pressing plate (15) through a plurality of sliding plates. A plurality of sliding grooves are formed in the side wall of the liquid injection pipe (10) at the lower part. Two limiting plates (16) are fixedly connected to the outer side wall of the piston pressing plate (15). Two guide grooves adapted to the limiting plates (16) are formed on the inner side wall of the heat exchange cylinder (1).

6. The heat dissipation embedding device of a high-frequency inductor according to claim 1, characterized in that, The heat insulation assembly is composed of a heat insulation ring (19) and a frustum-shaped shroud (20). A guide ring (18) is fixedly connected to the inner side wall of the cooling chamber (2). The top end of the drainage pipe (17) penetrates through the top end of the guide ring (18). The outer side wall of the heat insulation ring (19) is fixedly connected to the inner side wall of the guide ring (18). The top end of the heat insulation ring (19) is fixedly connected to the bottom end of the frustum-shaped shroud (20).

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