Waterproof corrosion-resistant magnetic control electric reactor and wind power generation device

Abstract

The application discloses a waterproof and corrosion-resistant magnetic control electric reactor and a wind power generation device, which comprises a shell, a plurality of coils and a plurality of iron cores arranged in the shell, a plurality of groups of power mechanisms powered by the coils, a plurality of fan blades mounted on the shell, and a connecting mechanism connected with the power mechanisms and the fan blades respectively, wherein the shell is provided with a plurality of first channels, a second channel connected with the first channels, and a third channel connected with the second channels. The power mechanism of the application directly obtains power from both ends of the coil, based on the principle of electromagnetic induction, reduces the loss of energy in the transmission process, and improves the 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 whole device, and the energy supply required for functions such as wind power generation and internal heat dissipation is more secure.

Description

Technical Field

[0001] This 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 Technology

[0002] In the industrial sector, with the development of automation technology and high-power equipment, reactors play a crucial role in motor speed control and power electronic conversion. For example, in variable frequency speed control systems, reactors can suppress harmonics and improve motor operating performance. In heavy industries such as steel and chemicals, the widespread use of high-power motors and electrical equipment has led to a continuous increase in the demand for reactors.

[0003] Reactors generate a significant amount of heat during operation. For example, under the influence of an alternating magnetic field, the magnetic domains within the reactor's core continuously reverse direction. Overcoming the friction between these domains consumes energy, which is dissipated as heat. When the alternating magnetic field passes through the core, it induces an electromotive force, forming a circular current—eddy current. This eddy current generates a magnetic field opposite to the original magnetic field, hindering its change. Due to the inherent resistance of the core, the eddy current generates heat during this process. Therefore, solving the heat dissipation problem of reactors is a crucial research direction in the industry. Summary of the Invention

[0004] The purpose of this application is to provide a waterproof and corrosion-resistant magnetically controlled reactor and a wind power generation device to solve the problem of reactor heat dissipation.

[0005] The waterproof and corrosion-resistant magnetically controlled reactor and wind power generation device provided in this application adopt the following technical solution: including a housing, several coils and several iron cores disposed in the housing, several sets of power mechanisms that obtain power from the coils, several fan blades installed in the housing, and connecting mechanisms that connect the power mechanisms and fan blades respectively. The housing is provided with several first channels, a second channel connecting the first channels, and a third channel connecting the second channels. The iron cores are inserted into the coils. The iron cores are disposed in the first channels. The power mechanisms and connecting mechanisms are disposed in the second channels. The fan blades are disposed in the second and third channels. The power mechanisms are disposed at both ends of the coils. The power mechanisms drive the fan blades to rotate through the connecting structures.

[0006] By adopting the above technical solution, the power mechanism located at both ends of the coil can directly obtain power from the coil and realize energy conversion using the force generated by electromagnetic induction. This direct power acquisition method reduces energy loss during energy transfer and improves energy utilization efficiency. Simultaneously, the power mechanism converts electromagnetic energy into mechanical energy, providing a power source for the fan blade rotation, driving the blades to rotate, and realizing functions such as energy conversion related to wind energy or internal heat dissipation. The interconnected design of the first, second, and third channels creates an orderly path for airflow. Air enters from specific inlets and flows along the channels; this directional airflow helps to precisely remove heat. The second channel houses the power mechanism and connecting mechanism. This makes heat dissipation more targeted, fully utilizing airflow to ensure these moving parts operate at suitable temperatures. The existence of the channels forms a tortuous air path, providing some barrier against external moisture. While preventing moisture from directly entering the device, it also allows airflow, achieving a balance between waterproofing and heat dissipation.

[0007] Optionally, the power mechanism includes a first column fixedly connected to the first channel, a movable member slidably connected to the first column, a magnet fixedly connected to the movable member, and a spring sleeved on the first column. The magnet has the same pole facing the coil, and the spring is located on both sides of the movable member. The spring forces the movable member to move up and down.

[0008] By adopting the above technical solution, the magnet fixedly connected to the moving part is one of the core elements for power generation. The design of the coil with its like poles facing each other cleverly utilizes the principle of electromagnetic repulsion. When the coil is energized and generates a magnetic field, a repulsive force is generated between it and the magnet, propelling the moving part. The springs, sleeved on the first post and located on both sides of the moving part, play a crucial role. On one hand, after the magnetic field generated by the magnet and the coil interacts to move the moving part, the springs provide a restoring force, forcing the moving part back to its initial position, realizing the reciprocating motion of the moving part. This reciprocating motion can continuously convert electromagnetic energy into mechanical energy, ensuring continuous power output. On the other hand, the placement of springs on both sides ensures the balance of the moving part during movement, preventing offset or jamming caused by uneven force, thus improving the reliability and stability of the power mechanism.

[0009] Optionally, the connecting mechanism includes a first rod fixedly connected to the moving 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.

[0010] By adopting the above technical solution, the first rod is fixedly connected to the moving component, transmitting the reciprocating linear motion of the moving component in the power mechanism. The second rod is rotatably connected to the second channel and slidably connected to the first rod. This connection method allows the reciprocating linear motion of the first rod to be partially converted into oscillating motion at the second rod. The intermediate component is slidably connected to the second column and also slidably connected to the second rod. This design ensures that the sliding of the intermediate component on the second column is affected by the movement of the second rod, further adjusting and transmitting power. The combination of the second column and the intermediate component can optimize and constrain the motion transmitted from the second rod, ensuring that the power is transmitted in a predetermined direction and manner.

[0011] Optionally, the connecting mechanism further includes a fixing member fixedly connected to the first channel, a rotating member rotatably connected to the fixing member, a ring gear fixedly connected to the fixing member, a fixing column fixedly connected to the rotating member, a gear rotatably connected to the fixing column, a drive rod slidably connected to the fixing member, a connecting member rotatably connected to the drive rod and the gear respectively, a first rotating shaft fixedly connected to the rotating member, and a flywheel fixedly connected to the first rotating shaft. The fixing column is eccentrically disposed on the rotating member, and the connection between the connecting member and the gear is eccentrically located at the rotation center of the gear. The fan blade is fixedly connected to the first rotating shaft.

[0012] By adopting the above technical solution, the fixed component, which is fixedly connected to 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 connected components in space are fixed, preventing unnecessary shaking or displacement of the entire transmission system during operation. The rotating component is connected to the fixed column, gears, and other components on one hand, and to the fan blades on the other hand through the first rotating shaft. Through its own rotation, it further converts and transmits the complex motion from the preceding components, enabling the power to drive the fan blades to rotate in a suitable manner. The fixed column is eccentrically positioned on the rotating component; when the rotating component rotates, the fixed column generates a non-circular symmetrical motion trajectory. Furthermore, under the presence of the ring gear, the gear can perform circumferential motion within the ring gear, allowing the rotating component to rotate.

[0013] Optionally, the intermediate component is provided with a sloping groove, and the drive rod is fixedly connected to a connecting rod, which is slidably connected to the sloping groove.

[0014] By adopting the above technical solution, the inclined groove of the intermediate component is slidably connected to the connecting rod fixedly connected to the drive rod. When the intermediate component moves up and down on the second column, the inclined groove applies a horizontal force to the connecting rod, causing the connecting rod to drive the drive rod to move back and forth horizontally.

[0015] Optionally, several first channels are distributed in a ring at equal angles in the housing, the gap between the third channel and all the first channels is equal, and the housing is provided with an air inlet channel that connects the third channel to the outside, the air inlet channel being located between two adjacent first channels.

[0016] By adopting the above technical solution, the gap between the third channel and all the first channels is 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 carry away the heat around each first channel at the same speed and flow rate, and the heat from the first channel can be evenly transferred to the third channel.

[0017] The air intake duct connects the third channel to the outside and is located between two adjacent first channels, providing a direct path for external cold air to enter the device. When heat dissipation is required, cold air can quickly enter the third channel through the air intake duct, and then, guided by the airflow generated by the fan blades, flow towards the first and second channels, effectively reducing the internal temperature of the device. This design optimizes the air intake process for heat dissipation and improves heat dissipation efficiency.

[0018] The air duct is positioned between two adjacent first channels, which to some extent prevents moisture from directly entering the critical electrical component areas within the first channel. Even in humid environments, moisture entering the device is blocked by the first channel structure, reducing the impact of moisture on components such as the iron core and coils, while ensuring ventilation and heat dissipation requirements, thus achieving a good balance between waterproofing and ventilation / heat dissipation functions.

[0019] Optionally, the third channel is fixedly connected to a mounting shell, the mounting shell has a through hole, the mounting shell contains a desiccant, and the mounting shell abuts against the inner wall of the third channel.

[0020] By employing the above technical solution, the inclusion of a desiccant inside the housing is a crucial waterproofing measure. During the air intake process, even if a small amount of moisture enters the device, the desiccant absorbs this moisture, reducing air humidity. This is essential to prevent moisture buildup inside the device, especially for protecting internal electrical components (such as coils and cores) from the effects of a humid environment. By maintaining dry air, the likelihood of short circuits, corrosion, and other malfunctions caused by moisture is reduced, significantly improving the reliability and lifespan of the device and ensuring the stable operation of the entire waterproof reactor and wind power generation unit in complex environments.

[0021] The housing abuts against the inner wall of the third channel. Heat generated in the first channel can be transferred to the third channel. The heat generated by the reactor regenerates the desiccant for reuse. The desiccant can be regenerated at medium temperatures; for example, montmorillonite desiccant can be regenerated by heating at 40-50℃, causing the adsorbed moisture to evaporate. Its regeneration performance is relatively good. When the moisture-absorbing montmorillonite desiccant is placed in a dry environment within this temperature range, the moisture adsorbed between the layers will gradually desorb as the temperature rises, restoring some of its moisture-absorbing capacity.

[0022] Optionally, one end of the third channel is connected to the outside, and the housing is rotatably connected to a second rotating shaft, which is connected to one of the first rotating shafts via belt drive / chain drive.

[0023] By adopting the above technical solution, the desiccant is heated to evaporate the adsorbed moisture. The evaporated moisture is transported to the outside by the fan blades in the third channel, preventing moisture from entering the second and third channels.

[0024] A wind power generation device includes the aforementioned waterproof and corrosion-resistant magnetically controlled reactor.

[0025] By adopting the above technical solutions, wind power generation devices are generally installed at high altitudes and in places with large temperature differences between day and night and relatively humid air. Waterproof reactors can be used in humid environments.

[0026] In summary, this application includes at least one of the following beneficial technical effects:

[0027] 1. The power mechanism directly draws power from both ends of the coil. Based on the principle of electromagnetic induction, this 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, allowing the entire device to better utilize energy during operation. It also ensures a more reliable energy supply for functions such as wind power generation and internal heat dissipation.

[0028] 2. The interconnected design of the first, second, and third channels of the casing creates an orderly path for airflow. Air enters from specific inlets and flows along the channels, forming a directional airflow that precisely removes heat. This heat dissipation method is particularly targeted at the second channel, where the power mechanism and connecting mechanisms are located. It ensures that moving parts operate at suitable temperatures, effectively preventing performance degradation and damage caused by overheating, extending component lifespan, and improving the overall reliability of the device.

[0029] 3. The presence of the channels creates a tortuous airflow path, which provides some barrier against external moisture. While preventing moisture from directly entering the device, it also allows air circulation, achieving a balance between waterproofing and heat dissipation. This design is particularly important in humid environments, effectively protecting internal electrical components from moisture damage and reducing the risk of short circuits, corrosion, and other malfunctions caused by humidity. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the overall structure of an embodiment of this application;

[0031] Figure 2 This is a schematic diagram showing the installation location of the power mechanism and connecting structure in this application;

[0032] Figure 3 This application Figure 3 Sectional view of AA;

[0033] Figure 4 This application Figure 4 Enlarged view of point a in the middle.

[0034] Explanation of reference numerals in the attached drawings: 1. Housing; 11. First channel; 12. Second channel; 13. Third channel; 2. Fixed housing; 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. Inclined groove; 48. Connecting rod; 49. Drive 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 housing; 61. Desiccant; 62. Through hole; 63. Air inlet channel. Detailed Implementation

[0035] The following is in conjunction with the appendix Figure 1 - Appendix Figure 4 This application will be described in further detail.

[0036] This application discloses a waterproof and corrosion-resistant magnetically controlled reactor and a wind power generation device.

[0037] Example 1, referring to Figures 1-3A waterproof and corrosion-resistant magnetically controlled reactor includes several coils 22 and several iron cores 21 disposed within a housing 1, several sets of power mechanisms 3 that obtain power from the coils 22, several fan blades 5 installed on the housing 1, and connecting mechanisms 4 that connect the power mechanisms 3 and the fan blades 5 respectively. The housing 1 is provided with several first channels 11, second channels 12 connecting the first channels 11, and third channels 13 connecting the second channels 12. In this embodiment 1, the number of first channels 11 is three, and the three first channels 11 are distributed in a ring at equal angles in the housing 1. The third channel 13 is connected to all the first channels 11. The gaps before 1 are equal. The second channel 12 is located at both ends of the first channel 11. The housing 1 has an air inlet channel 63 connecting the third channel 13 to the outside. The air inlet channel 63 is located between two adjacent first channels 11. The first channel 11 is fixedly connected to a fixed housing 2. The coil 22 is wound around the fixed housing 2. The iron core 21 is inserted into the coil 22 and fixedly connected to the fixed housing 2. The power mechanism 3 and the connecting mechanism 4 are located in the second channel 12. The fan blade 5 is located in the second channel 12 and the third channel 13. The power mechanism 3 drives the fan blade 5 to rotate through the connecting structure. The power mechanism 3 and the connecting mechanism 4 are located in the second channel 12, and the fan blade 5 is located in the second channel 12 and the third channel 13. The power mechanism 3 drives the fan blade 5 to rotate through the connecting structure. This series of connections and arrangements 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 blade 5 through the connecting mechanism 4. The fan blade 5 rotates under the drive of the power, generating airflow to achieve heat dissipation inside the reactor. This internal collaborative working mechanism ensures that the reactor can effectively dissipate heat during operation, thereby guaranteeing its performance and lifespan.

[0038] refer to Figure 3 and Figure 4The power mechanism 3 includes a first column 31 fixedly connected to the first channel 11, a movable part 33 slidably connected to the first column 31, a magnet 32 ​​fixedly connected to the movable part 33, and a spring 34 sleeved on the first column 31. The magnet 32 ​​has the same pole facing the coil 22. When the coil 22 is energized, it generates an alternating magnetic field at both ends of the coil 22, which allows the coil 22 to repeatedly attract the magnet 32, enabling the movable part 33 to move up and down. The fixed shell 2 is fixedly connected to the first column 31. The spring 34 is located between the mounting shell 6 and the movable part 33, and between the inside of the first cavity and the movable part 33. Its design of having the same pole facing the coil 22 cleverly utilizes the principle of electromagnetic repulsion. When the coil 22 is energized and generates a magnetic field, it generates a repulsive force with the magnet 32, pushing the movable part 33 to move. The spring 34, sleeved on the first column 31 and located on both sides of the movable part 33, plays a crucial role. On the one hand, when the magnetic field generated by the magnet 32 ​​and the coil 22 interacts to move the movable part 33, the spring 34 provides a restoring force, forcing the movable part 33 back to its initial position, thus realizing the reciprocating motion of the movable part 33. This reciprocating motion can continuously convert electromagnetic energy into mechanical energy, ensuring continuous power output. On the other hand, the arrangement of the spring 34 on both sides can ensure the balance of the movable part 33 during the movement, preventing deviation or jamming caused by uneven force, and improving the reliability and stability of the power mechanism 3.

[0039] 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 rods 41 pass through the first channel 11 and extend into the second channel 12. The second rods 42 are provided with a first sliding groove 43, and the first rods 41 are slidably connected to the first sliding groove 43. The intermediate member 45 is provided with a second sliding groove 46, and the second rods 42 are slidably connected to the second sliding groove 46. The first rods 41 can move up and down reciprocally under the action of the moving member 33, causing the second rods 42 to swing back and forth. The second rods 42 drive the intermediate member 45 to move up and down. In the vertical direction, since the first rods 41 are closer to the rotation center of the second rods 42 than the intermediate member 45, the vertical movement of the intermediate member 45 is greater than the vertical movement of the first rods 41.

[0040] 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 post 494 fixedly connected to the rotating member 497, a gear 492 rotatably connected to the fixing post 494, a drive rod 49 slidably connected to the fixing member 493, a connecting member 498 rotatably connected to the drive rod 49 and the gear 492 respectively, and a first rotating shaft 496 fixedly connected to the rotating member 497. The flywheel 495 is fixedly connected to the first rotating shaft 496. The fixed column 494 is eccentrically set on the rotating part 497. The connection between the connecting part 498 and the gear 492 is eccentrically located at the rotation center of the gear 492. The fan blade 5 is fixedly connected to the first rotating shaft 496. The intermediate block is provided with a sloping groove 47. The drive rod 49 is fixedly connected to a connecting rod 48. The connecting rod 48 is slidably connected to the sloping groove 47. The intermediate part 45 moves up and down. Under the action of the inner wall of the sloping groove 47, the drive rod 49 can move in the horizontal direction. Under the action of the drive rod 49 and the connector 498, the gear 492 can rotate circumferentially around the ring gear 491. Under the action of the fixed column 494, the gear 492 causes the rotating component 497 to rotate, which in turn drives the first rotating shaft 496 to rotate. The flywheel 495 can continue to maintain the rotation of the first rotating shaft 496 by its inertia, making the rotation of the entire system more stable and continuous. The first rotation drives the fan blade 5 to rotate, and the fan blade 5 disturbs the air in the second channel 12 so that the heat in the first channel 11 can be dissipated.

[0041] refer to Figure 2 and Figure 3The third channel 13 is fixedly connected to a mounting shell 6, which has a through hole 62 and contains a desiccant 61. The mounting shell 6 abuts against the inner wall of the third channel 13, and one end of the third channel 13 is connected to the outside. The shell 1 is rotatably connected to a second rotating shaft 51, which is connected to one of the first rotating shafts 496 via belt drive / chain drive. In this embodiment 1, the desiccant 61 is montmorillonite desiccant 61. At a temperature of 40-50℃, the montmorillonite desiccant 61 can be regenerated by evaporating the adsorbed moisture through heating. Its regeneration performance is relatively good. When the montmorillonite desiccant 61 that has absorbed moisture is placed in a dry environment within this temperature range, the moisture adsorbed between the layers will gradually desorb as the temperature rises, restoring a certain amount of moisture absorption capacity. The housing 1 is provided with an air inlet channel 63 connecting the third channel 13 to the outside. The air inlet channel 63 is located between two adjacent first channels 11. When the outside air enters through the air inlet channel 63, the moisture in the air is first absorbed by the desiccant 61. The fan blades 5 of the second channel 12 on both sides of the first channel 11 disturb the airflow in opposite directions, so that the air can pass through the first channel 11 under the action of the fan blades 5, thus enhancing the airflow. The coil 22 and iron core 21 in the first channel 11 generate 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. The fan blades 5 in the third channel 13 can transport the evaporated moisture to the outside.

[0042] The implementation principle of the waterproof and corrosion-resistant magnetically controlled reactor and wind power generation device in this application embodiment 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. The iron core 21 is inserted into the coil 22 and fixed to the fixed shell 2. When the coil 22 is energized with 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 has the same pole facing the coil 22. Utilizing the principle of electromagnetic repulsion, the magnetic field generated by the magnet 32 ​​and the coil 22 interacts to generate a repulsive force, which pushes the moving part 33, which is fixedly connected to the magnet 32, to move. At the same time, the springs 34, which are sleeved on the first column 31 and located on both sides of the moving part 33, play a role. After the moving part 33 moves, the springs 34 provide a restoring force, forcing 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 continuous power output, and the springs 34 ensure the balance of the moving part 33 during the movement.

[0043] The connecting mechanism 4 transmits the power generated by the power mechanism 3 to the fan blade 5. In the connecting mechanism 4, two first rods 41, fixedly connected to the moving member 33, pass through the first channel 11 and extend into the second channel 12. The first rods 41 are slidably connected to the first grooves 43 of the two second rods 42 rotatably connected to the second channel 12. When the first rods 41 reciprocate up and down under the drive of the moving member 33, the second rods 42 oscillate back and forth. The second rods 42 are slidably connected to the second grooves 46 of the intermediate member 45 of the second column 44 slidably connected within the second channel 12. Because the first rods 41 are closer to the rotation center of the second rods 42 than the intermediate member 45, the vertical movement of the intermediate member 45 is greater than the vertical movement of the first rods 41.

[0044] The intermediate component 45 is provided with a sloping groove 47, and the drive rod 49, which is slidably connected to the fixed component 493, slides within the sloping groove 47. When the intermediate component 45 moves up and down, the drive rod 49 moves horizontally under the action of the inner wall of the sloping groove 47. The drive rod 49 is connected to the gear 492, which is rotatably connected to the fixed column 494 (the fixed column 494 is eccentrically set on the rotating component 497), through a connecting component 498, and the connection between the connecting component 498 and the gear 492 is eccentrically located at the rotation center of the gear 492. Under the action of the drive rod 49 and the connecting component 498, the gear 492 rotates circumferentially around the ring gear 491, which is fixedly connected to the fixed component 493. Under the action of the fixed column 494, the gear 492 causes the rotating component 497 to rotate, and the rotating component 497 drives the first rotating shaft 496, which is fixedly connected to it, to rotate. The flywheel 495, which is fixedly connected to the first shaft 496, maintains the rotation of the first shaft 496 by its inertia, making the rotation smoother and more continuous. The first shaft 496 drives the fan blade 5 to rotate.

[0045] The rotating fan blades 5 agitate the air in the second channel 12, allowing heat from the first channel 11 to dissipate. The first channel 11 is fixedly connected to a housing 2, which contains a coil 22 and an iron core 21; the generated heat can be dissipated through airflow. The housing 1 has an air inlet channel 63 connecting the third channel 13 to the outside. External air enters through the air inlet channel 63, and the moisture in the air is first absorbed by the montmorillonite desiccant 61 fixedly connected to the mounting housing 6 in the third channel 13. The fan blades 5 in the second channel 12 on both sides of the first channel 11 agitate the airflow in opposite directions, allowing air to pass through the first channel 11, enhancing airflow, and transferring heat from the first channel 11 to the third channel 13. The transferred heat evaporates the moisture in the montmorillonite desiccant 61, regenerating the desiccant 61. The fan blades 5 in the third channel 13 transport the evaporated moisture to the outside. Furthermore, the second rotating shaft 51 rotatably connected to the housing 1 is connected to one of the first rotating shafts 496 via belt or chain drive, further improving the transmission and working mechanism of the entire system.

[0046] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A waterproof and corrosion-resistant magnetically controlled reactor, characterized in that: The device includes a housing (1), several coils (22) and several iron cores (21) disposed within the housing (1), several sets of power mechanisms (3) that obtain power from the coils (22), several fan blades (5) installed on the housing (1), and connecting mechanisms (4) that connect the power mechanisms (3) and the fan blades (5) respectively. The housing (1) is provided with several first channels (11), a second channel (12) connecting the first channels (11), and a third channel (13) connecting the second channels (12). The iron cores (21) are inserted into the coils (22). The iron cores (21) are disposed in the first channels (11). The power mechanisms (3) and the connecting mechanisms (4) are disposed in the second channels (12). The fan blades (5) are disposed in the second channels (12) and the third channels (13). The power mechanisms (3) are disposed at both ends of the coils (22). The power mechanisms (3) drive the fan blades (5) to rotate through the connecting structure. The power mechanism (3) includes a first column (31) fixedly connected to the first channel (11), a movable part (33) slidably connected to the first column (31), a magnet (32) fixedly connected to the movable part (33), and a spring (34) sleeved on the first column (31). The magnet (32) has the same pole facing the coil (22), and the spring (34) is located on both sides of the movable part (33). The spring (34) forces the movable part (33) to move up and down. The connecting mechanism (4) includes a first rod (41) fixedly connected to the moving part (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 part (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) and the second rod (42) are slidably connected, and the second rod (42) and the intermediate part (45) are slidably connected. Several first channels (11) are distributed in a ring at equal angles in the housing (1). The gap between the third channel (13) and all the first channels (11) is equal. The housing (1) is provided with an air inlet channel (63) connecting the third channel (13) and the outside. The air inlet channel (63) is located between two adjacent first channels (11).

2. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 1, characterized in that: The connecting mechanism (4) further 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 drive rod (49) slidably connected to the fixing member (493), a connecting member (498) rotatably connected to the drive rod (49) and the gear (492), the rotating member (497) is fixedly connected to the first rotating shaft (496) and a flywheel (495) fixedly connected to the first rotating shaft (496), the fixing column (494) is eccentrically set on the rotating member (497), the connection between the connecting member (498) and the gear (492) is eccentrically located at the rotation center of the gear (492), and the fan blade (5) is fixedly connected to the first rotating shaft (496).

3. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 2, characterized in that: The intermediate component (45) is provided with a sloping groove (47), and the drive rod (49) is fixedly connected to a connecting rod (48), which is slidably connected to the sloping groove (47).

4. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 3, characterized in that: The third channel (13) is fixedly connected to the 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 the inner wall of the third channel (13).

5. The waterproof and corrosion-resistant magnetically controlled reactor according to claim 4, characterized in that: One end of the third channel (13) is connected to the outside, and 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 belt drive or chain drive.

6. A wind power generation device, characterized in that: Includes the waterproof and corrosion-resistant magnetically controlled reactor as described in any one of claims 1-5.

Images