Electric reactor with stable internal coil and auxiliary heat dissipation

Abstract

The invention discloses an electric reactor with internal coil stabilization and auxiliary heat dissipation, and relates to the technical field of coil stabilization, the electric reactor comprises a base, the top surface of the base is fixedly connected with an air-core electric reactor body, the outer surface of the air-core electric reactor body is provided with a coil body, and the top surface of the base is provided with a coil stabilization mechanism for preventing the coil from loosening. An auxiliary heat dissipation mechanism used for assisting heat dissipation of the reactor is arranged on the top face of the base, the coil stabilizing mechanism can clamp a loose coil, pressure can be applied more evenly through clamping and fixing, the coil is more stably fixed, the consistency of the shape and performance of the coil can be kept, and the service life of the reactor is prolonged. The clamping device can avoid direct compression and damage to an insulating layer of the coil, the insulating performance of the coil can be protected, the auxiliary heat dissipation mechanism can scrub the interior of the electric reactor, remove dust and sundries in the electric reactor, reduce heat resistance, improve heat dissipation efficiency and keep the electric reactor to operate within the normal working temperature range.

Description

Technical Field

[0001] The present invention relates to the technical field of stable coils, and in particular to a reactor with internal coil stabilization and auxiliary heat dissipation. Background Art

[0002] A reactor is an electrical device that performs current limiting, filtering, reactive power compensation and other functions in a circuit, and the reactor described in the present invention is an air-core reactor.

[0003] The reactor generates heat when working, causing the coil and other components to expand due to the heat. When the equipment stops working, the temperature drops and the components shrink again. This repeated thermal expansion and contraction will cause a certain amount of stress on the fixed structure of the coil, which will cause the coil to loosen in the long run. In addition, when the reactor is working, the current passing through the coil will generate electromagnetic force. In some cases, the electromagnetic force will cause the coil to vibrate or move. If the coil is not fixed firmly enough, it will gradually become loose.

[0004] In the prior art, the coil is fixed by binding, but binding will cause uneven force on the coil, some parts will be subjected to excessive pressure, while other parts are not firmly fixed, which will affect the shape and performance of the coil. In addition, during the binding process, if the binding force is too large or the binding material is not properly selected, the insulation layer of the coil will be damaged, thereby affecting the insulation performance and service life of the coil. Binding will hinder the air flow around the coil to a certain extent, affecting the heat dissipation effect, causing the coil temperature to rise, and further affecting its performance and reliability. The binding fixing method will make the installation and disassembly of the coil more difficult, increasing the difficulty and time cost of maintenance and repair.

[0005] In the prior art, reactors are usually cooled naturally, and natural cooling mainly relies on natural convection of air to dissipate heat, and its heat dissipation efficiency is relatively low, which will cause the temperature of the reactor to rise during operation, affecting its performance and service life. Due to the unevenness of natural cooling, local overheating will occur inside the reactor, which will accelerate insulation aging in local areas and increase the risk of failure.

[0006] Therefore, a reactor with internal coil stability and auxiliary heat dissipation is proposed to solve the above problems. Summary of the invention

[0007] In view of this, the technical problem to be solved by the present invention is to propose an inductor with internal coil stability and auxiliary heat dissipation, so as to solve the problem that the existing technology fixes the coil by binding, which will cause uneven force on the coil, some parts will be subjected to excessive pressure, while other parts will not be firmly fixed, which will affect the shape and performance of the coil. Natural cooling mainly relies on natural convection of air to dissipate heat, and its heat dissipation efficiency is relatively low, which will cause the temperature of the inductor to rise during operation, affecting its performance and service life.

[0008] To achieve the above-mentioned object, the present invention provides the following technical solutions: a reactor with internal coil stabilization and auxiliary heat dissipation, used for coil stabilization, comprising a base, a hollow reactor body is fixedly connected to the top surface of the base, a coil body is arranged on the outer surface of the hollow reactor body, a stabilizing coil mechanism for preventing the coil from loosening is arranged on the top surface of the base, and an auxiliary heat dissipation mechanism for assisting the heat dissipation of the reactor is arranged on the top surface of the base;

[0009] The coil stabilizing mechanism comprises a first circular plate, wherein a first sliding groove for assisting in clamping the coil is provided inside the first circular plate;

[0010] The auxiliary heat dissipation mechanism comprises a first rotating shaft, and a blowing fan blade for heat dissipation is fixedly connected to the bottom end of the first rotating shaft.

[0011] Preferably, the stabilizing coil mechanism also includes a sliding plate, wherein the first circular plate is fixedly connected to the top surface of the air-core reactor body, the sliding plate is slidably connected to the inside of the first sliding groove, a side of the sliding plate away from the first circular plate is fixedly connected to a first sliding column, and the top surface of the first circular plate is rotatably connected to a second circular plate.

[0012] Preferably, a first arc-shaped groove is opened inside the second circular plate, an auxiliary cylinder is fixedly connected to the top surface of the second circular plate, an arc-shaped clamping plate is fixedly connected to the end of the sliding plate away from the auxiliary cylinder, and an infrared detector is fixedly connected to the bottom edge of the first circular plate.

[0013] Preferably, the auxiliary heat dissipation mechanism also includes a first isolation plate, the first rotating shaft is rotatably connected to the bottom surface of the inner wall of the hollow reactor body, the first isolation plate is fixedly connected to the inner wall of the hollow reactor body, and the blowing fan blades are located below the first isolation plate, the first rotating shaft passes through and is rotatably connected to the inside of the first isolation plate, the top end of the first rotating shaft is fixedly connected to a rotating column, and the top surface of the first isolation plate is fixedly connected to a support plate.

[0014] Preferably, a second arc groove is formed on the outer surface of the rotating column, a sliding column is slidably connected inside the supporting plate, and a sliding ring is fixedly connected to one end of the sliding column away from the second arc groove.

[0015] Preferably, the top surface of the auxiliary cylinder is rotatably connected to a conical suction head, the top surface of the conical suction head is fixedly connected to a fixing plate, the bottom surface of the fixing plate is rotatably connected to a second rotating shaft, the side of the second rotating shaft away from the fixing plate is fixedly connected to a dust suction blade, the inner wall of the conical suction head is fixedly connected to a second isolation plate, and the second isolation plate is located below the dust suction blade, the top of the inner wall of the conical suction head is slidably connected to an L-shaped sliding rod, the top arc surface of the conical suction head is penetrated and fixedly connected to a dust discharge pipe, and the end of the ash discharge pipe away from the conical suction head is penetrated and fixedly connected to a collection box.

[0016] Preferably, the sliding column is slidably connected to the second arc-shaped groove.

[0017] Preferably, the second rotating shaft is slidably connected to the L-shaped sliding rod.

[0018] Compared with the prior art, the present invention provides a reactor with internal coil stability and auxiliary heat dissipation, which has the following beneficial effects:

[0019] 1. The loose coil can be clamped by cooperating with the sliding plate, the first sliding column, the second circular plate, the first arc-shaped groove, the auxiliary cylinder and the arc-shaped clamping plate in the stabilizing coil mechanism. The clamping fixation can apply pressure more evenly, so that the coil can be fixed more firmly, which helps to maintain the consistency of the shape and performance of the coil. The clamping device can avoid direct pressure and damage to the insulation layer of the coil, which helps to protect the insulation performance of the coil. The clamping fixation method usually has less effect on the air flow around the coil, which is beneficial to improve the heat dissipation effect, reduce the working temperature of the coil, and improve its reliability and service life. The clamping fixation method is relatively easier to install and disassemble the coil, which is convenient for maintenance, repair and replacement, and improves work efficiency.

[0020] 2. Through the cooperation between the second arc groove, the sliding column and the sliding ring in the auxiliary heat dissipation mechanism, the inside of the reactor can be brushed. The hollow reactor generates heat during operation. If dust and debris accumulate inside, it will affect the heat dissipation. The up and down movement of the sliding ring can remove the dust and debris inside the reactor, reduce thermal resistance, improve heat dissipation efficiency, help keep the reactor running within the normal operating temperature range, and extend its service life. The accumulation of dust and debris will reduce the insulation performance of the reactor and increase the risk of leakage and short circuit. By cleaning the sliding ring, pollutants that may affect insulation can be removed, the insulation performance of the reactor can be improved, and the operation can be enhanced. The safety and reliability of the operation, the dust and debris accumulated inside the reactor will interfere with the electromagnetic field, affecting the performance and electromagnetic compatibility of the reactor. The movement of the slip ring can remove these interference sources, reduce electromagnetic interference, and improve the working stability and accuracy of the reactor. Timely cleaning of the dirt inside the hollow reactor can reduce the probability of failure, avoid local overheating and discharge caused by dust accumulation, reduce equipment damage and maintenance costs, and improve the overall reliability of the system. Cleaning with a cleaning brush can keep the inside of the reactor clean and reduce the accumulation rate of dirt, which can extend the maintenance cycle of the reactor and reduce the maintenance frequency and cost.

[0021] 3. Through the cooperation of the conical suction head, dust discharge pipe, collection box and dust suction fan blades in the auxiliary heat dissipation mechanism, the dust inside the reactor can be sucked out while brushing the inside of the reactor. Dust suction can effectively remove the dust generated by brushing and the originally loose dust particles, achieving a more thorough cleaning effect and ensuring the cleanliness inside the reactor. Dust removal can reduce thermal resistance and make the heat dissipation of the reactor smoother. Good heat dissipation helps to maintain the reactor within the normal operating temperature range, improve its working efficiency and stability, and extend its service life. Effective cleaning can slow down the accumulation of dust, thereby extending the maintenance cycle of the reactor and reducing maintenance costs and workload. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a three-dimensional side view of the overall structure of the present invention;

[0023] Figure 2 It is a front view of the overall structure of the present invention;

[0024] Figure 3 This is a schematic diagram of the connection relationship structure of the air-core reactor body of the present invention;

[0025] Figure 4 This is a schematic diagram of the connection relationship structure of the first circular plate of the present invention;

[0026] Figure 5 It is a schematic diagram of the internal structure of the air-core reactor body of the present invention;

[0027] Figure 6 This is a schematic diagram of the connection relationship structure of the sliding column of the present invention;

[0028] Figure 7 This is a schematic diagram of the connection relationship structure of the conical suction head of the present invention;

[0029] Figure 8 Schematic diagram of the internal structure of the conical suction head of the present invention.

[0030] In the figure:

[0031] 1. Base; 2. Air-core reactor body; 3. Coil body;

[0032] Coil stabilizing mechanism: 401, first circular plate; 402, first sliding groove; 403, sliding plate; 404, first sliding column; 405, second circular plate; 406, first arc groove; 407, auxiliary cylinder; 408, arc clamping plate; 409, infrared detector;

[0033] Auxiliary heat dissipation mechanism: 501, first rotating shaft; 502, blowing fan blades; 503, first isolation plate; 504, rotating column; 505, supporting plate; 506, second arc groove; 507, sliding column; 508, sliding ring; 509, conical suction head; 510, fixing plate; 511, second rotating shaft; 512, L-shaped sliding rod; 513, second isolation plate; 514, dust discharge pipe; 515, collecting box; 516, dust suction fan blades. DETAILED DESCRIPTION

[0034] 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.

[0035] The present invention is further described in detail below based on the accompanying drawings and embodiments.

[0036] Example

[0037] Please refer to Figures 1 to 4 As shown:

[0038] In order to solve the problems mentioned in the technical solution, the embodiment of the present application provides a reactor with internal coil stability and auxiliary heat dissipation, which is used for coil stability and includes a base 1, a hollow reactor body 2 is fixedly connected to the top surface of the base 1, a coil body 3 is arranged on the outer surface of the hollow reactor body 2, a stabilizing coil mechanism for preventing the coil from loosening is arranged on the top surface of the base 1, and an auxiliary heat dissipation mechanism for assisting the heat dissipation of the reactor is arranged on the top surface of the base 1;

[0039] The coil stabilizing mechanism comprises a first circular plate 401, and a first sliding groove 402 for assisting in clamping the coil is provided inside the first circular plate 401;

[0040] The coil stabilizing mechanism also includes a sliding plate 403. The first circular plate 401 is fixedly connected to the top surface of the air-core reactor body 2. The sliding plate 403 is slidably connected to the inside of the first slide groove 402. The side of the sliding plate 403 away from the first circular plate 401 is fixedly connected to the first sliding column 404. The top surface of the first circular plate 401 is rotatably connected to the second circular plate 405.

[0041] A first arc groove 406 is provided inside the second circular plate 405 , an auxiliary cylinder 407 is fixedly connected to the top surface of the second circular plate 405 , an arc clamping plate 408 is fixedly connected to the end of the sliding plate 403 away from the auxiliary cylinder 407 , and an infrared detector 409 is fixedly connected to the bottom edge of the first circular plate 401 .

[0042] Among them: the hollow reactor body 2 is provided with holes, mainly to achieve better heat dissipation effect, the arc-shaped clamping plate 408 is made of breathable material, and the inner wall of the arc-shaped clamping plate 408 is provided with a leakage detection device, and is electrically connected to the alarm. When the coil body 3 leaks electricity, the alarm sounds, and a driving device is provided on the top surface of the base 1. The infrared detector 409 is electrically connected to the driving device. The driving device can control the rotation of the auxiliary cylinder 407, and the first sliding column 404 can slide in the first arc-shaped groove 406.

[0043] In the prior art, the coil is fixed by binding, but binding will cause uneven force on the coil, some parts will be subjected to excessive pressure, while other parts may not be fixed firmly, which will affect the shape and performance of the coil. In addition, during the binding process, if the binding force is too large or the binding material is not properly selected, the insulation layer of the coil will be damaged, thereby affecting the insulation performance and service life of the coil. The binding will hinder the air flow around the coil to a certain extent, affecting the heat dissipation effect, causing the temperature of the coil to rise, thereby affecting its performance and reliability. The binding fixing method will make the installation and removal of the coil more difficult, increasing the difficulty and time cost of maintenance and repair. Compared with the prior art, the sliding plate 403 and the first A sliding column 404, a second circular plate 405, a first arc-shaped groove 406, an auxiliary cylinder 407 and an arc-shaped clamping plate 408 cooperate with each other to clamp a loose coil. The clamping fixation can apply pressure more evenly, so that the coil is fixed more firmly, which helps to maintain the consistency of the shape and performance of the coil. The clamping device can avoid direct pressure and damage to the insulation layer of the coil, which helps to protect the insulation performance of the coil. The clamping fixation method usually has less effect on the air flow around the coil, which is beneficial to improve the heat dissipation effect, reduce the operating temperature of the coil, and improve its reliability and service life. The clamping fixation method is relatively easier to install and disassemble the coil, facilitates maintenance, repair and replacement, and improves work efficiency.

[0044] For further examples, please refer to Figures 5 to 8 As shown:

[0045] The auxiliary heat dissipation mechanism comprises a first rotating shaft 501, and a blower fan blade 502 for heat dissipation is fixedly connected to the bottom end of the first rotating shaft 501;

[0046] The auxiliary heat dissipation mechanism also includes a first isolation plate 503, a first rotating shaft 501 rotatably connected to the bottom surface of the inner wall of the hollow reactor body 2, the first isolation plate 503 is fixedly connected to the inner wall of the hollow reactor body 2, and the blowing fan blades 502 are located below the first isolation plate 503, the first rotating shaft 501 penetrates and is rotatably connected to the inside of the first isolation plate 503, the top end of the first rotating shaft 501 is fixedly connected to a rotating column 504, and the top surface of the first isolation plate 503 is fixedly connected to a support plate 505.

[0047] A second arc groove 506 is formed on the outer surface of the rotating column 504 , a sliding column 507 is slidably connected inside the supporting plate 505 , and a sliding ring 508 is fixedly connected to one end of the sliding column 507 away from the second arc groove 506 .

[0048] The top surface of the auxiliary cylinder 407 is rotatably connected to a conical suction head 509, the top surface of the conical suction head 509 is fixedly connected to a fixing plate 510, the bottom surface of the fixing plate 510 is rotatably connected to a second rotating shaft 511, the side of the second rotating shaft 511 away from the fixing plate 510 is fixedly connected to a dust collecting blade 516, the inner wall of the conical suction head 509 is fixedly connected to a second isolation plate 513, and the second isolation plate 513 is located below the dust collecting blade 516, the top of the inner wall of the conical suction head 509 is slidably connected to an L-shaped sliding rod 512, the top arc surface of the conical suction head 509 is penetrated and fixedly connected to an ash discharge pipe 514, and the end of the ash discharge pipe 514 away from the conical suction head 509 is penetrated and fixedly connected to a collection box 515

[0049] Wherein: the first isolation plate 503 and the second isolation plate 513 are both provided with holes, the outer surface of the sliding ring 508 is provided with a soft brush, which is mainly used to brush away dust in the air-core reactor body 2, and the top surface of the fixing plate 510 is provided with a driving device, which can drive the second rotating shaft 511 to rotate.

[0050] In the prior art, reactors are usually cooled naturally, and natural cooling mainly relies on natural convection of air to dissipate heat, and its heat dissipation efficiency is relatively low, which will cause the temperature of the reactor to rise during operation, affecting its performance and service life. Due to the unevenness of natural cooling, local overheating will occur inside the reactor, which will accelerate insulation aging in local areas and increase the risk of failure. Compared with the prior art, the interior of the reactor can be brushed by the cooperation between the second arc groove 506, the sliding column 507 and the sliding ring 508 in the auxiliary heat dissipation mechanism. The hollow reactor will generate heat during operation. If dust and debris accumulate inside, it will affect the heat dissipation. The up and down movement of the sliding ring 508 can remove dust and debris inside the reactor, reduce thermal resistance, improve heat dissipation efficiency, help keep the reactor operating within the normal operating temperature range, and extend its service life. The accumulation of dust and debris will reduce the insulation performance of the reactor and increase the risk of leakage and short circuit. By cleaning the slip ring 508, pollutants that may affect the insulation can be removed, the insulation performance of the reactor can be improved, and the safety and reliability of operation can be enhanced. The dust and debris accumulated inside the reactor will interfere with the electromagnetic field and affect the performance and electromagnetic compatibility of the reactor. The movement of the slip ring 508 can remove these interference sources, reduce electromagnetic interference, and improve the working stability and accuracy of the reactor. Timely cleaning of the dirt inside the hollow reactor can reduce the probability of failure, avoid local overheating and discharge caused by dust accumulation, reduce equipment damage and maintenance costs, and improve the overall reliability of the system. Cleaning with a cleaning brush can keep the inside of the reactor clean and reduce the accumulation rate of dirt. This can extend the maintenance cycle of the reactor and reduce the maintenance frequency and cost.

[0051] Everything in the above example works like this:

[0052] In the initial state: the arc-shaped clamping plate 408 is in an expanded state, and the sliding ring 508 is located at the bottom end of the air-core reactor body 2 .

[0053] The following is the working process of the coil stabilizing mechanism clamping the coil:

[0054] When in use, the reactor generates heat when working, causing the coil and other components to expand due to the heat. When the equipment stops working, the temperature drops and the components shrink again. This repeated thermal expansion and contraction will cause a certain stress on the fixed structure of the coil, which may cause the coil to loosen in the long run. In addition, when the reactor is working, the current passing through the coil will generate electromagnetic force. In some cases, the electromagnetic force will cause the coil to vibrate or move. If the coil is not fixed firmly enough, it will gradually become loose. When the infrared detector 409 detects that the coil body 3 is loose, the drive device controls the auxiliary cylinder 407 to rotate, and the rotation of the auxiliary cylinder 407 drives the second circular plate 405 fixedly connected thereto to rotate. Since the second circular plate 405 is provided with a first arc groove 406 inside, that is, the rotation of the second circular plate 405 drives the first arc groove 406 to rotate, thereby driving the first sliding column 404 slidably connected thereto to move inward, and the inward movement of the first sliding column 404 drives the sliding plate 403 fixedly connected thereto to move inward, and the inward movement of the sliding plate 403 drives the The arc-shaped clamping plate 408 moves inward to clamp the loose coil body 3. The clamping fixation can apply pressure more evenly, so that the coil is fixed more firmly, which helps to maintain the consistency of the shape and performance of the coil. The arc-shaped design can evenly distribute the pressure along the curved surface of the coil to avoid excessive local force and reduce the direct shear force on the insulation layer. In addition, the contact area between the arc-shaped clamping plate and the coil is large, which reduces the pressure per unit area and the risk of damage to the insulation layer, which helps to protect the insulation performance of the coil. Since the air-core inductor body 2 is provided with holes and the arc-shaped clamping plate 408 is made of breathable material, the holes and the breathable material allow air to flow freely, forming better convection heat dissipation. Compared with the tight wrapping of the cable tie, this design allows heat to be dissipated more easily. The breathable design reduces the possibility of local accumulation of heat, helps to dissipate heat evenly, reduce the operating temperature of the coil, and improve its reliability and service life. The clamping fixation method is relatively easier to install and disassemble the coil, which is convenient for maintenance, repair and replacement, and improves work efficiency.

[0055] The arc-shaped splint 408 is made of breathable material, and the inner wall of the arc-shaped splint 408 is provided with a leakage detection device, and is electrically connected to the alarm. When the coil body 3 leaks electricity, the alarm sounds, thereby immediately reminding the staff that the leakage of the reactor coil will not immediately lead to serious faults. The alarm reminder allows the staff to evaluate and deal with the problem without stopping the equipment, thereby ensuring the continuous operation of the production line. Timely alarms allow the staff to deal with the problem in the early stage of the fault, avoiding further deterioration of the leakage problem and causing more serious equipment damage, thereby reducing maintenance costs.

[0056] Please refer to the above working process Figures 1 to 4 .

[0057] The following is the working process of auxiliary heat dissipation mechanism:

[0058] When in use, the driving device drives the first rotating shaft 501 and the second rotating shaft 511 to rotate. The rotation of the first rotating shaft 501 drives the fan blades 502 fixedly connected thereto to rotate, and then drives the rotating column 504 to rotate together. Since the outer surface of the rotating column 504 is provided with a second arc groove 506, and the sliding column 507 is slidably connected with the second arc groove 506, that is, the rotation of the second arc groove 506 drives the sliding column 507 to move up and down, and the sliding column 507 moves up and down to drive the sliding ring 508 fixedly connected thereto to move up and down inside the hollow reactor body 2. Since the outer surface of the sliding ring 508 is provided with a soft brush, that is, when the sliding ring 508 moves up and down, the dust inside the hollow reactor body 2 is brushed to remove dust and debris inside the reactor, thereby reducing thermal resistance, improving heat dissipation efficiency, and helping to keep the reactor running within the normal operating temperature range, thereby extending its service life. The accumulation of dust and debris will reduce the insulation performance of the reactor and increase the risk of leakage and short circuit. By cleaning the sliding ring 508, pollutants that may affect the insulation can be removed, the insulation performance of the reactor can be improved, and the safety and reliability of operation can be enhanced. The dust and debris accumulated inside the reactor will interfere with the electromagnetic field and affect the performance and electromagnetic compatibility of the reactor. The movement of the sliding ring 508 can remove these interference sources, reduce electromagnetic interference, and improve the working stability and accuracy of the reactor. Timely cleaning of the dirt inside the hollow reactor can reduce the probability of failure, avoid local overheating and discharge caused by dust accumulation, reduce equipment damage and maintenance costs, and improve the overall reliability of the system. Cleaning with a cleaning brush can keep the inside of the reactor clean and reduce the accumulation rate of dirt, which can extend the maintenance cycle of the reactor and reduce the maintenance frequency and cost.

[0059] At the same time, the second rotating shaft 511 rotates to cause the L-shaped sliding rod 512 slidably connected to it to slide, thereby knocking the second isolation plate 513, thereby removing the dust adhering to the surface of the second isolation plate 513. In addition, the rotation of the second rotating shaft 511 drives the dust suction blades 516 fixedly connected to it to rotate. The rotation of the dust suction blades 516 can suck the dust generated by brushing into the collection box 515 through the dust discharge pipe 514 for collection. The dust suction can effectively remove the dust generated by brushing and the originally loose dust particles, thereby achieving a more thorough cleaning effect and ensuring the cleanliness inside the reactor. The removal of dust can reduce thermal resistance and make the heat dissipation of the reactor smoother. Good heat dissipation helps to maintain the reactor within a normal operating temperature range, improve its working efficiency and stability, and extend its service life. Effective cleaning can slow down the accumulation of dust, thereby extending the maintenance cycle of the reactor and reducing maintenance costs and workload.

[0060] Please refer to the above working process Figures 5 to 8 .

[0061] 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 "including one..." do not exclude the existence of other identical elements in the process, method, article or device including the elements.

[0062] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A reactor with internal coil stabilization and auxiliary heat dissipation, used for coil stabilization, comprising a base (1), a hollow reactor body (2) fixedly connected to the top surface of the base (1), a coil body (3) arranged on the outer surface of the hollow reactor body (2), characterized in that: The top surface of the base (1) is provided with a coil stabilizing mechanism for preventing the coil from loosening, and the top surface of the base (1) is provided with an auxiliary heat dissipation mechanism for assisting the reactor in heat dissipation; The coil stabilizing mechanism comprises a first circular plate (401), wherein a first sliding groove (402) for assisting in clamping the coil is provided inside the first circular plate (401); The auxiliary heat dissipation mechanism comprises a first rotating shaft (501), and a blower fan blade (502) for heat dissipation is fixedly connected to the bottom end of the first rotating shaft (501).

2. A reactor with internal coil stabilization and auxiliary heat dissipation according to claim 1, characterized in that: The stabilizing coil mechanism also includes a sliding plate (403), wherein the first circular plate (401) is fixedly connected to the top surface of the air-core reactor body (2), the sliding plate (403) is slidably connected to the inside of the first sliding groove (402), a first sliding column (404) is fixedly connected to a side of the sliding plate (403) away from the first circular plate (401), and the top surface of the first circular plate (401) is rotatably connected to a second circular plate (405).

3. A reactor with internal coil stabilization and auxiliary heat dissipation according to claim 2, characterized in that: A first arc-shaped groove (406) is provided inside the second circular plate (405); an auxiliary cylinder (407) is fixedly connected to the top surface of the second circular plate (405); an arc-shaped clamping plate (408) is fixedly connected to one end of the sliding plate (403) away from the auxiliary cylinder (407); and an infrared detector (409) is fixedly connected to the edge of the bottom surface of the first circular plate (401).

4. A reactor with internal coil stabilization and auxiliary heat dissipation according to claim 3, characterized in that: The auxiliary heat dissipation mechanism also includes a first isolation plate (503), the first rotating shaft (501) is rotatably connected to the bottom surface of the inner wall of the hollow reactor body (2), the first isolation plate (503) is fixedly connected to the inner wall of the hollow reactor body (2), and the fan blades (502) are located below the first isolation plate (503), the first rotating shaft (501) passes through and is rotatably connected to the inside of the first isolation plate (503), the top end of the first rotating shaft (501) is fixedly connected to a rotating column (504), and the top surface of the first isolation plate (503) is fixedly connected to a support plate (505).

5. A reactor with internal coil stabilization and auxiliary heat dissipation according to claim 4, characterized in that: A second arc groove (506) is formed on the outer surface of the rotating column (504), a sliding column (507) is slidably connected inside the supporting plate (505), and a sliding ring (508) is fixedly connected to one end of the sliding column (507) away from the second arc groove (506).

6. A reactor with internal coil stabilization and auxiliary heat dissipation according to claim 5, characterized in that: The top surface of the auxiliary cylinder (407) is rotatably connected to a conical suction head (509), the top surface of the conical suction head (509) is fixedly connected to a fixing plate (510), the bottom surface of the fixing plate (510) is rotatably connected to a second rotating shaft (511), the side of the second rotating shaft (511) away from the fixing plate (510) is fixedly connected to a dust suction blade (516), the inner wall of the conical suction head (509) is fixedly connected to a second isolation plate (513), and the second isolation plate (513) is located below the dust suction blade (516), the top of the inner wall of the conical suction head (509) is slidably connected to an L-shaped sliding rod (512), the top circular arc surface of the conical suction head (509) is penetrated and fixedly connected to an ash discharge pipe (514), and the end of the ash discharge pipe (514) away from the conical suction head (509) is penetrated and fixedly connected to a collection box (515).

7. A reactor with internal coil stabilization and auxiliary heat dissipation according to claim 5, characterized in that: The sliding column (507) is slidably connected to the second arc-shaped groove (506).

8. The reactor with internal coil stabilization and auxiliary heat dissipation according to claim 6, characterized in that: The second rotating shaft (511) is slidably connected to the L-shaped sliding rod (512).

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