Waterproof corrosion-resistant magnetically controlled reactor and wind power generation device

Abstract

The invention discloses a waterproof corrosion-resistant magnetically controlled reactor and a wind power generation device, which comprise a shell, a plurality of coils and a plurality of iron cores arranged in the shell, a plurality of groups of power mechanisms for obtaining power from the coils, a plurality of fan blades mounted on the shell, and a connecting mechanism respectively connected with the power mechanisms and the fan blades, the shell is provided with a plurality of first channels, second channels communicating with the first channels and third channels communicating with the second channels. According to the power mechanism, power is directly obtained from the two ends of the coil, the loss of energy in the transmission process is reduced based on the electromagnetic induction principle, and the energy utilization efficiency is improved. By means of the design, conversion from electric energy to mechanical energy is more direct and efficient, energy can be better utilized in the operation process of the whole device, and energy supply needed by the functions of wind power generation, heat dissipation inside the device and the like is better guaranteed.

Description

Technical Field

[0001] The present application relates to the technical field of reactors, and in particular to a waterproof and corrosion-resistant magnetically controlled reactor and a wind power generation device. Background Art

[0002] In the industrial field, with the development of automation technology and high-power equipment, reactors have played an important role in motor speed regulation, power electronic conversion, etc. For example, in variable frequency speed regulation systems, reactors can be used to suppress harmonics and improve the operating performance of motors. In heavy industries such as steel and chemical industry, the large-scale use of high-power motors and electrical equipment has led to an increasing demand for reactors. The reactor generates a lot of heat during operation. For example, the magnetic domains inside the reactor's iron core will constantly flip directions under the action of the alternating magnetic field. In this process, the friction between the magnetic domains needs to be overcome, which consumes energy. This energy is dissipated in the form of heat. When the alternating magnetic field passes through the iron core, an induced electromotive force is generated inside the iron core, thereby forming a circular current, i.e., eddy current. Eddy current will generate a magnetic field opposite to the original magnetic field, hindering the change of the original magnetic field. In this process, since the iron core itself has a certain resistance, eddy current will generate heat. Therefore, solving the problem of heat dissipation of reactors is a relatively important research direction in the industry. Summary of the invention

[0003] The purpose of the present application is to provide a waterproof and corrosion-resistant magnetically controlled inductor and a wind power generation device in order to solve the problem of heat dissipation of the inductor.

[0004] A waterproof and corrosion-resistant magnetically controlled inductor and a wind power generation device provided in the present application adopt the following technical solution: comprising a shell, a plurality of coils and a plurality of iron cores arranged in the shell, a plurality of power mechanisms for obtaining power from the coils, a plurality of fan blades installed on the shell, and connection mechanisms respectively connecting the power mechanisms and the fan blades, the shell being provided with a plurality of first channels, a second channel connected to the first channels, and a third channel connected to the second channels, the iron core being inserted into the coil, the iron core being arranged in the first channel, the power mechanism and the connection mechanism being arranged in the second channel, the fan blades being arranged in the second channel and the third channel, the power mechanism being arranged at both ends of the coil, and the power mechanism driving the fan blades to rotate through the connection structure.

[0005] By adopting the above technical solution, the power mechanism arranged at both ends of the coil can directly obtain power from the coil and realize energy conversion by using the force generated by electromagnetic induction. This direct way of obtaining power reduces the loss in the process of energy transfer and improves the efficiency of energy utilization. At the same time, the power mechanism converts electromagnetic energy into mechanical energy, provides a power source for the rotation of the fan blades, drives the fan blades to rotate, and realizes functions such as energy conversion related to wind energy or heat dissipation inside the device; the connection design of the first channel, the second channel and the third channel creates an orderly path for air flow. The air enters from a specific entrance and flows along the channel. This directional airflow helps to accurately take away the heat; the second channel where the power mechanism and the connecting mechanism are located. This makes the heat dissipation more targeted and can make full use of the air flow to ensure that these moving parts operate at a suitable temperature; the existence of the channel forms a tortuous air path, which has a certain barrier effect on external moisture. While preventing moisture from directly entering the interior of the device, it allows air circulation, achieving a balance between waterproof and heat dissipation functions. Optionally, the power mechanism includes a first column fixedly connected to the first channel, a moving part slidably connected to the first column, a magnet fixedly connected to the moving part, and a spring sleeved on the first column, the magnet has the same pole facing the coil, the spring is located on both sides of the moving part, and the spring forces the moving part to move up and down.

[0006] By adopting the above technical solution, the magnet fixedly connected to the moving part is one of the core elements of power generation. The design of the coil with the same pole cleverly utilizes the principle of electromagnetic repulsion. When the coil is energized to generate a magnetic field, a repulsive force is generated between it and the magnet, pushing the moving part to move; the spring is sleeved on the first column and located on both sides of the moving part, playing a vital role. On the one hand, when the magnetic field generated by the magnet and the coil interacts to move the moving part, the spring provides a restoring force, forcing the moving part to return to its initial position, realizing the up and down reciprocating motion of the moving part. This reciprocating motion can continuously convert electromagnetic energy into mechanical energy, ensuring the continuous output of power. On the other hand, the setting of the spring on both sides can ensure the balance of the moving part during the movement, prevent the deviation or jamming caused by uneven force, and improve the reliability and stability of the power mechanism operation.

[0007] Optionally, the connecting mechanism includes a first rod fixedly connected to the movable member, a second rod rotatably connected to the second channel, a second column fixedly connected to the second channel, and an intermediate member slidably connected to the second column, the first rod passes through the first channel and extends into the second channel, the first rod is slidably connected to the second rod, and the second rod is slidably connected to the intermediate member.

[0008] By adopting the above technical solution, the first rod is fixedly connected to the moving part, which transmits the reciprocating linear motion of the moving part in the power mechanism, and the second rod is rotatably connected to the second channel and is slidably connected to the first rod. This connection method allows the reciprocating linear motion of the first rod to be partially converted into a swinging motion at the second rod; the middle piece is slidably connected to the second column and is slidably connected to the second rod. This design allows the sliding of the middle piece on the second column to be affected by the movement of the second rod, further adjusting and transmitting power. The combination of the second column and the middle piece can optimize and constrain the motion transmitted from the second rod, ensuring that the power is transmitted in a predetermined direction and manner.

[0009] Optionally, the connecting mechanism also includes a fixed part fixedly connected to the first channel, a rotating part rotatably connected to the fixed part, a ring gear fixedly connected to the fixed part, a fixed column fixedly connected to the rotating part, a gear rotatably connected to the fixed column, a driving rod slidably connected to the fixed part, a connecting part rotatably connected to the driving rod and the gear respectively, a rotating part fixedly connected to the first rotating shaft, and a flywheel fixedly connected to the first rotating shaft, the fixed column is eccentrically arranged on the rotating part, the connection between the connecting part and the gear is eccentric to the rotation center of the gear, and the fan blades are fixedly connected to the first rotating shaft.

[0010] By adopting the above technical solution, the fixing member fixedly connected to the fixing member of the first channel provides a stable installation foundation and support point for the entire complex connection mechanism. It ensures that the relative positions of the various components connected to it are fixed in space, so that the entire transmission system will not have unnecessary shaking or displacement during operation; the rotating member is connected to the fixed column, gears and other components on the one hand, and is connected to the fan blades through the first rotating shaft on the other hand. Through its own rotation, the complex motion from the front component is further converted and transmitted, so that the power can drive the fan blades to rotate in a suitable manner; the fixed column is eccentrically arranged on the rotating member. When the rotating member rotates, the fixed column will produce a non-circularly symmetrical motion trajectory, and under the present condition of the ring gear, the gear can make circumferential motion in the ring gear, so that the rotating member can rotate.

[0011] Optionally, the intermediate piece is provided with an inclined groove, the driving rod is fixedly connected with a connecting rod, and the connecting rod is slidably connected to the inclined groove.

[0012] By adopting the above technical solution, the inclined groove of the middle piece is slidably connected to the connecting rod fixedly connected to the driving rod. When the middle piece moves up and down on the second column, the inclined groove exerts a horizontal force on the connecting rod, so that the connecting rod drives the driving rod to move back and forth in the horizontal direction.

[0013] Optionally, a plurality of the first channels are distributed in an equiangular ring in the shell, the gap between the third channel and all the first channels is equal, and the shell is provided with an air inlet channel connecting the third channel with the outside, and the air inlet channel is arranged between two adjacent first channels.

[0014] By adopting the above technical solution, the gaps between the third channel and all the first channels are equal, ensuring that the air can be evenly distributed when flowing from the first channel to the third channel. During the heat dissipation process, the air can take away the heat around each first channel at the same speed and flow rate, and the heat of the first channel can be evenly transferred to the third channel.

[0015] The air inlet channel connects the third channel with the outside and is arranged between two adjacent first channels, providing a direct path for external cold air to enter the device. When heat dissipation is required, the cold air can quickly enter the third channel through the air inlet channel, and then flow to the first channel and the second channel under the guidance of the airflow generated by the rotation of the fan blades, effectively reducing the temperature inside the device. This design optimizes the air intake process of heat dissipation and improves heat dissipation efficiency.

[0016] The location of the wind channel is chosen between two adjacent first channels, which can prevent moisture from directly entering the key electrical component area in the first channel to a certain extent. Even in a humid environment, when moisture enters the device, it will be blocked by the first channel structure, reducing the impact of moisture on components such as the iron core and coils, while ensuring the needs of ventilation and heat dissipation, achieving a good balance between waterproofing and ventilation and heat dissipation functions.

[0017] Optionally, the third channel is fixedly connected to a mounting shell, the mounting shell is provided with a through hole, the mounting shell is provided with a desiccant, and the mounting shell abuts against an inner wall of the third channel.

[0018] By adopting the above technical solution, a desiccant is installed in the housing as a key waterproof measure. When air enters the device, even if a small amount of moisture enters with the air, the desiccant can absorb the moisture and reduce the humidity of the air. This is very important to prevent moisture from accumulating inside the device, especially to protect the internal electrical components (such as coils, iron cores, etc.) from the influence of humid environments. By keeping the air dry, the possibility of short circuits, corrosion and other faults caused by moisture is reduced, which greatly improves the reliability and service life of the device and ensures the stable operation of the entire waterproof reactor and wind power generation device in complex environments.

[0019] The installation shell is against the inner wall of the third channel, and the heat generated by the first channel can be transferred to the third channel. The heat generated by the reactor is used to regenerate the desiccant. The desiccant can be regenerated at medium temperature. For example, montmorillonite desiccant can be regenerated by evaporating the adsorbed water by heating at a temperature of 40-50℃. Its regeneration performance is relatively good. When the montmorillonite desiccant after moisture absorption is placed in a dry environment in this temperature range, as the temperature rises, the moisture adsorbed between the layers will gradually desorb and restore a certain moisture absorption capacity.

[0020] Optionally, one end of the third channel is connected to the outside, and the shell is rotatably connected to a second rotating shaft, and the second rotating shaft is connected to one of the first rotating shafts via a belt drive / chain drive.

[0021] By adopting the above technical solution, the desiccant is heated to evaporate the adsorbed moisture, and the evaporated moisture is transported to the outside under the action of the fan blades of the third channel, preventing the moisture from entering the second and third channels.

[0022] A wind power generation device comprises the waterproof and corrosion-resistant magnetically controlled reactor.

[0023] By adopting the above technical solution, wind power generation devices are generally installed at high altitudes and located in places with large temperature differences between day and night and relatively humid air. Through waterproof reactors, they can be used in humid environments.

[0024] In summary, the present application includes at least one of the following beneficial technical effects: 1. The power mechanism obtains power directly from both ends of the coil. Based on the principle of electromagnetic induction, it reduces energy loss during transmission and improves energy utilization efficiency. This design makes the conversion from electrical energy to mechanical energy more direct and efficient, which is conducive to better utilization of energy during the operation of the entire device. Whether it is used for wind power generation or internal heat dissipation of the device, the energy supply required is more guaranteed.

[0025] 2. The first, second and third channels of the shell are connected to create an orderly path for air flow. Air can enter from a specific entrance and flow along the channel to form a directional airflow, which can accurately remove heat. Especially for the second channel where the power mechanism and the connection mechanism are located, this heat dissipation method is more targeted, which can ensure that the moving parts operate at a suitable temperature, effectively avoid problems such as performance degradation and damage of components caused by overheating, extend the service life of components, and improve the overall reliability of the device.

[0026] 3. The existence of the channel forms a tortuous air path, which has a certain barrier effect on external moisture. While preventing moisture from directly entering the device, it allows air circulation, achieving a balance between waterproof and heat dissipation functions. This design is particularly important in humid environments, which can effectively protect internal electrical components from moisture and reduce the risk of short circuits, corrosion and other failures caused by moisture. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 It is a schematic diagram of the overall structure of an embodiment of the present application; Figure 2 It is a schematic diagram of the installation position of the power mechanism and the connection structure of the present application; Figure 3 This application Figure 3Section view of AA in the middle; Figure 4 This application Figure 4 Enlarged view of point a in the middle.

[0028] Explanation of the accompanying drawings: 1. Shell; 11. First channel; 12. Second channel; 13. Third channel; 2. Fixed shell; 21. Iron core; 22. Coil; 3. Power mechanism; 31. First column; 32. Magnet; 33. Moving part; 34. Spring; 4. Connecting mechanism; 41. First rod; 42. Second rod; 43. First slide groove; 44. Second column; 45. Intermediate part; 46. Second slide groove; 47. Bevel groove; 48. Connecting rod; 49. Driving rod; 491. Ring gear; 492. Gear; 493. Fixed part; 494. Fixed column; 495. Flywheel; 496. First rotating shaft; 497. Rotating part; 498. Connecting part; 5. Fan blade; 51. Second rotating shaft; 6. Mounting shell; 61. Desiccant; 62. Through hole; 63. Air inlet channel. DETAILED DESCRIPTION

[0029] The following is combined with Figure 1 -Attached Figure 4 This application is described in further detail.

[0030] The embodiments of the present application disclose a waterproof and corrosion-resistant magnetically controlled reactor and a wind power generation device.

[0031] Example 1, reference Figure 1-Figure 3A waterproof and corrosion-resistant magnetically controlled reactor comprises a plurality of coils 22 and a plurality of iron cores 21 arranged in a housing 1, a plurality of power mechanisms 3 for obtaining power from the coils 22, a plurality of fan blades 5 installed on the housing 1, and a connection mechanism 4 respectively connecting the power mechanisms 3 and the fan blades 5. The housing 1 is provided with a plurality of first channels 11, a second channel 12 connected to the first channels 11, and a third channel 13 connected to the second channel 12. In this embodiment 1, the number of the first channels 11 is three, and the three first channels 11 are distributed in an annular manner at equal angles in the housing 1. The third channel 13 is connected to all the first channels 11. 1, the second channel 12 is arranged at both ends of the first channel 11, the housing 1 is provided with an air inlet channel 63 connecting the third channel 13 with the outside, the air inlet channel 63 is arranged between two adjacent first channels 11, the first channel 11 is fixedly connected with a fixed shell 2, the coil 22 is wound around the fixed shell 2, the iron core 21 is inserted into the coil 22, and is fixedly connected to the fixed shell 2, the power mechanism 3 and the connecting mechanism 4 are arranged in the second channel 12, the fan blades 5 are arranged in the second channel 12 and the third channel 13, and the power mechanism 3 drives the fan blades 5 to rotate through the connecting structure. The power mechanism 3 and the connecting mechanism 4 are arranged in the second channel 12, and the fan blades 5 are arranged in the second channel 12 and the third channel 13. The power mechanism 3 drives the fan blades 5 to rotate through the connecting structure, and this series of connections and settings constitutes a complete heat dissipation power system. After the power mechanism 3 obtains power from the coil 22, it accurately transmits the power to the fan blades 5 through the connecting mechanism 4, and the fan blades 5 rotate under the drive of the power to generate airflow to achieve heat dissipation inside the reactor. This internal collaborative working mechanism ensures that the reactor can effectively dissipate heat during operation, thereby ensuring its performance and life.

[0032] refer to Figure 3 and Figure 4The power mechanism 3 includes a first column 31 fixedly connected to the first channel 11, a moving part 33 slidably connected to the first column 31, a magnet 32 ​​fixedly connected to the moving part 33, and a spring 34 sleeved on the first column 31. The magnet 32 ​​faces the coil 22 with the same pole. The alternating current passed through the coil 22 generates a magnetic field with alternating magnetic poles at both ends of the coil 22, so that the coil 22 can repeatedly attract the magnet 32, so that the moving part 33 can move up and down. The fixed shell 2 is fixedly connected to the first column 31. The spring 34 is arranged between the mounting shell 6 and the moving part 33, and between the inside of the first cavity and the moving part 33. The design of the same pole facing the coil 22 cleverly utilizes the principle of electromagnetic repulsion. When the coil 22 is energized to generate a magnetic field, a repulsive force is generated between it and the magnet 32, pushing the moving part 33 to move; the spring 34 is sleeved on the first column 31 and located on both sides of the moving part 33, playing a vital role. On the one hand, when the magnetic field generated by the magnet 32 ​​and the coil 22 interact to move the moving member 33, the spring 34 provides a restoring force, forcing the moving member 33 to return to the initial position, thereby realizing the up and down reciprocating motion of the moving member 33. This reciprocating motion can continuously convert electromagnetic energy into mechanical energy, thereby ensuring the continuous output of power. On the other hand, the arrangement of the spring 34 on both sides can ensure the balance of the moving member 33 during the motion process, prevent the deviation or jamming caused by uneven force, and improve the reliability and stability of the operation of the power mechanism 3.

[0033] refer to Figure 3 and Figure 4 The connecting mechanism 4 includes two first rods 41 fixedly connected to the moving member 33, two second rods 42 rotatably connected to the second channel 12, a second column 44 fixedly connected to the second channel 12, and an intermediate member 45 slidably connected to the second column 44. The first rod 41 passes through the first channel 11 and extends into the second channel 12. The second rod 42 is provided with a first slide groove 43. The first rod 41 is slidably connected to the first slide groove 43. The intermediate member 45 is provided with a second slide groove 46. The second rod 42 is slidably connected to the second slide groove 46. The first rod 41 can reciprocate up and down under the action of the moving member 33, so that the second rod 42 swings back and forth, and the second rod 42 drives the intermediate member 45 to move up and down. In the vertical direction, since the first rod 41 is closer to the rotation center of the second rod 42 than the intermediate member 45, the up and down movement amplitude of the intermediate member 45 is greater than the movement amplitude of the first rod 41.

[0034] refer to Figure 3 and Figure 4The connecting mechanism 4 also includes a fixing member 493 fixedly connected to the first channel 11, a rotating member 497 rotatably connected to the fixing member 493, a ring gear 491 fixedly connected to the fixing member 493, a fixing column 494 fixedly connected to the rotating member 497, a gear 492 rotatably connected to the fixing column 494, a driving rod 49 slidably connected to the fixing member 493, a connecting member 498 rotatably connected to the driving rod 49 and the gear 492, a first rotating shaft 496 fixedly connected to the rotating member 497, and a fixed A flywheel 495 is fixedly connected to the first rotating shaft 496, a fixed column 494 is eccentrically arranged on the rotating member 497, a connection between the connecting member 498 and the gear 492 is eccentric to the rotation center of the gear 492, and the fan blade 5 is fixedly connected to the first rotating shaft 496; an intermediate block is provided with an inclined groove 47, a driving rod 49 is fixedly connected with a connecting rod 48, the connecting rod 48 is slidably connected to the inclined groove 47, the intermediate member 45 moves up and down, and the driving rod 49 is able to move in the horizontal direction under the action of the inner wall of the inclined groove 47. Under the action of the driving rod 49 and the connecting member 498, the gear 492 can rotate circumferentially around the ring gear 491. Under the action of the fixed column 494, the gear 492 enables the rotating member 497 to rotate, and the rotating member 497 thereby drives the first rotating shaft 496 to rotate. The flywheel 495 can continue to maintain the rotation of the first rotating shaft 496 by virtue of its inertia, so that the rotation of the entire system is more stable and continuous. The first rotation drives the fan blades 5 to rotate, and the fan blades 5 disturb the air in the second channel 12 so that the heat in the first channel 11 can be dissipated.

[0035] refer to Figure 2 and Figure 3, the third channel 13 is fixedly connected with a mounting shell 6, the mounting shell 6 is provided with a through hole 62, the mounting shell 6 is provided with a desiccant 61, the mounting shell 6 abuts against the inner wall of the third channel 13, one end of the third channel 13 is connected to the outside, the shell 1 is rotatably connected with a second rotating shaft 51, and the second rotating shaft 51 is connected to one of the first rotating shafts 496 through a belt drive / chain drive. In this embodiment 1, the desiccant 61 takes montmorillonite desiccant 61 as an example. At a temperature of 40-50°C, the montmorillonite desiccant 61 can be heated to evaporate the adsorbed moisture, thereby achieving regeneration. Its regeneration performance is relatively good. The montmorillonite desiccant 61 after moisture absorption is placed in a dry environment in this temperature range. As the temperature rises, the moisture adsorbed between the layers will gradually desorb and restore a certain moisture absorption capacity. The shell 1 is provided with an air inlet channel 63 connecting the third channel 13 with the outside. The air inlet channel 63 is arranged between two adjacent first channels 11. The external air passes through the air inlet channel 63, and the moisture in the air will first be absorbed by the desiccant 61. The fan blades 5 of the second channel 12 on both sides of the first channel 11 disturb the air flow in the opposite direction, so that the air can pass through the first channel 11 under the action of the fan blades 5, thereby enhancing the small cover of the air flow. The coil 22 and the iron core 21 in the first channel 11 emit heat, and the heat in the first channel 11 can be transferred to the third channel 13. The transferred heat can evaporate the moisture in the desiccant 61, so that the desiccant 61 can be reused, and the fan blades 5 in the third channel 13 can transport the evaporated moisture to the outside.

[0036] The implementation principle of a waterproof and corrosion-resistant magnetically controlled reactor and a wind power generation device in the embodiment of the present application is as follows: the power mechanism 3 of the waterproof reactor obtains power from the coil 22. The coil 22 is wound around the fixed shell 2 and the fixed shell 2 is fixedly connected to the first column 31, and the iron core 21 is inserted into the coil 22 and fixed to the fixed shell 2. When the coil 22 is powered by alternating current, a magnetic field with alternating magnetic poles is generated at both ends of the coil 22. The magnet 32 ​​in the power mechanism 3 faces the coil 22 with the same pole. Using the principle of electromagnetic repulsion, the magnetic field generated by the magnet 32 ​​and the coil 22 interact to generate a repulsive force, which pushes the moving part 33 fixedly connected to the magnet 32 ​​to move. At the same time, the spring 34 sleeved on the first column 31 and located on both sides of the moving part 33 plays a role. When the moving part 33 moves, the spring 34 provides a restoring force to force the moving part 33 to return to the initial position, thereby realizing the up and down reciprocating motion of the moving part 33, continuously converting electromagnetic energy into mechanical energy, ensuring the continuous output of power, and the spring 34 ensures the balance of the moving part 33 during the movement.

[0037] The connecting mechanism 4 transmits the power generated by the power mechanism 3 to the fan blades 5. In the connecting mechanism 4, two first rods 41 fixedly connected to the moving member 33 penetrate the first channel 11 and extend into the second channel 12, and the first rods 41 are slidably connected to the first chute 43 of the two second rods 42 rotatably connected to the second channel 12. When the first rod 41 reciprocates up and down driven by the moving member 33, the second rod 42 swings back and forth. The second rod 42 is slidably connected to the second chute 46 of the middle member 45 slidably connected to the second column 44 in the second channel 12. Since the first rod 41 is closer to the rotation center of the second rod 42 than the middle member 45, the up and down movement amplitude of the middle member 45 is greater than the movement amplitude of the first rod 41.

[0038] The middle member 45 is provided with an inclined groove 47, and the driving rod 49 slidably connected to the fixed member 493 slides in the inclined groove 47. When the middle member 45 moves up and down, the driving rod 49 moves in the horizontal direction under the action of the inner wall of the inclined groove 47. The driving rod 49 is connected to the gear 492 rotatably connected to the fixed column 494 (the fixed column 494 is eccentrically arranged on the rotating member 497) through the connecting member 498, and the connection between the connecting member 498 and the gear 492 is eccentric to the rotation center of the gear 492. Under the action of the driving rod 49 and the connecting member 498, the gear 492 rotates circumferentially around the ring gear 491 fixedly connected to the fixed member 493, and the gear 492 rotates the rotating member 497 under the action of the fixed column 494, and the rotating member 497 drives the first rotating shaft 496 fixedly connected thereto to rotate. The flywheel 495 fixedly connected to the first rotating shaft 496 maintains the rotation of the first rotating shaft 496 by virtue of its inertia, making the rotation more stable and continuous, and the first rotating shaft 496 drives the fan blades 5 to rotate.

[0039] The fan blades 5 rotate to disturb the air in the second channel 12, so that the heat in the first channel 11 can be dissipated. The first channel 11 is fixedly connected to the fixed shell 2, and there are coils 22 and iron cores 21 inside. The heat generated can be dissipated through air flow. The shell 1 is provided with an air inlet channel 63 connecting the third channel 13 and the outside. The external air enters from the air inlet channel 63, and the moisture in the air is first absorbed by the montmorillonite desiccant 61 in the mounting shell 6 fixedly connected to the third channel 13. The fan blades 5 of the second channel 12 on both sides of the first channel 11 disturb the air flow in the opposite direction, so that the air can pass through the first channel 11, enhance the air flow, and the heat in the first channel 11 can be transferred to the third channel 13. The transferred heat can evaporate the moisture in the montmorillonite desiccant 61, so as to achieve the regeneration of the desiccant 61. The fan blades 5 in the third channel 13 can transport the evaporated moisture to the outside. In addition, the second rotating shaft 51 rotatably connected to the shell 1 is connected to one of the first rotating shafts 496 through a belt drive or a chain drive, which further improves the transmission and working mechanism of the entire system.

[0040] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A waterproof and corrosion-resistant magnetically controlled reactor, characterized in that: The invention comprises a housing (1), a plurality of coils (22) and a plurality of iron cores (21) arranged in the housing (1), a plurality of power mechanisms (3) for obtaining power from the coils (22), a plurality of fan blades (5) installed in the housing (1), and connection mechanisms (4) respectively connecting the power mechanisms (3) and the fan blades (5), wherein the housing (1) is provided with a plurality of first channels (11), a second channel (12) connected to the first channels (11), and a third channel (13) connected to the second channels (12), the iron core (21) is inserted into the coils (22), the iron core (21) is arranged in the first channel (11), the power mechanism (3) and the connection mechanism (4) are arranged in the second channel (12), the fan blades (5) are arranged in the second channel (12) and the third channel (13), the power mechanism (3) is arranged at both ends of the coil (22), and the power mechanism (3) drives the fan blades (5) to rotate through the connection structure.

2. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 1, characterized in that: The power mechanism (3) comprises a first column (31) fixedly connected to the first channel (11), a moving member (33) slidably connected to the first column (31), a magnet (32) fixedly connected to the moving member (33), and a spring (34) sleeved on the first column (31), wherein the magnet (32) has the same pole facing the coil (22), and the spring (34) is located on both sides of the moving member (33), and the spring (34) forces the moving member (33) to move up and down.

3. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 2, characterized in that: The connecting mechanism (4) comprises a first rod (41) fixedly connected to the moving member (33), a second rod (42) rotatably connected to the second channel (12), a second column (44) fixedly connected to the second channel (12), and an intermediate member (45) slidably connected to the second column (44); the first rod (41) passes through the first channel (11) and extends into the second channel (12); the first rod (41) is slidably connected to the second rod (42); and the second rod (42) is slidably connected to the intermediate member (45).

4. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 3, characterized in that: The connection mechanism (4) further comprises a fixing member (493) fixedly connected to the first channel (11), a rotating member (497) rotatably connected to the fixing member (493), a ring gear (491) fixedly connected to the fixing member (493), a fixing column (494) fixedly connected to the rotating member (497), a gear (492) rotatably connected to the fixing column (494), a driving rod (49) slidably connected to the fixing member (493), a connecting member (498) rotatably connected to the driving rod (49) and the gear (492), the rotating member (497) fixedly connected to a first rotating shaft (496), and a flywheel (495) fixedly connected to the first rotating shaft (496), the fixing column (494) being eccentrically arranged on the rotating member (497), a connection point between the connecting member (498) and the gear (492) being eccentric to the rotation center of the gear (492), and the fan blade (5) being fixedly connected to the first rotating shaft (496).

5. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 4, characterized in that: The intermediate member (45) is provided with an inclined groove (47), the driving rod (49) is fixedly connected to a connecting rod (48), and the connecting rod (48) is slidably connected to the inclined groove (47).

6. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 5, characterized in that: A plurality of the first channels (11) are distributed in an annular manner at equal angles on the housing (1); the gaps between the third channel (13) and all the first channels (11) are equal; the housing (1) is provided with an air inlet channel (63) connecting the third channel (13) with the outside; the air inlet channel (63) is arranged between two adjacent first channels (11).

7. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 6, characterized in that: The third channel (13) is fixedly connected to a mounting shell (6), the mounting shell (6) is provided with a through hole (62), the mounting shell (6) is provided with a desiccant (61), and the mounting shell (6) abuts against an inner wall of the third channel (13).

8. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 7, characterized in that: One end of the third channel (13) is connected to the outside. The housing (1) is rotatably connected to a second rotating shaft (51). The second rotating shaft (51) is connected to one of the first rotating shafts (496) via a belt drive or a chain drive.

9. A wind power generation device, characterized in that: The invention comprises the waterproof and corrosion-resistant magnetically controlled inductor as described in any one of claims 1 to 8.

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