Electrical coupling type wind and steam complementary power generation device

Abstract

The invention provides an electrical coupling type wind and steam complementary power generation device, and relates to the technical field of wind power generation devices, the electrical coupling type wind and steam complementary power generation device comprises a steam box, a heating cavity is formed in the steam box, a combustion chamber is arranged at the bottom of the heating cavity, a heat transfer assembly is arranged at the top of the steam box, and the heat transfer assembly comprises a water tank; a water storage layer is arranged in the water tank, two vertical pipes are connected to the bottom of the water storage layer, the bottoms of the vertical pipes are inserted into the heating cavity, and coiled pipes are fixed to the bottoms of the two vertical pipes. Heat is transmitted into the heating cavity, water is preheated to a certain degree, during steam power generation, the temperature in the heating cavity is transmitted into the water tank to be pre-stored, the time consumed for heating water to generate steam next time is shortened, the two power generation modes are matched with each other, the power generation efficiency is improved, and energy consumption is reduced.

Description

Technical Field

[0001] The present invention relates to the technical field of wind power generation devices, and in particular to an electrically coupled wind and steam complementary power generation device. Background Art

[0002] The basic principle of electrically coupled wind power generation is to convert wind energy into mechanical energy: the wind turbine rotor (also called blades) consists of multiple blades, usually three. When the wind blows through the blades, the kinetic energy of the wind acts on the blades, causing them to rotate. This rotation converts the kinetic energy of the wind into mechanical energy. The rotation of the wind rotor shaft is connected to the generator through a transmission system (such as a gearbox). The working principle of the generator is based on electromagnetic induction, that is, when a conductor rotates in a magnetic field, an electric current is generated in the conductor. Specifically, when the rotor of the generator (usually a permanent magnet or an electromagnet) rotates, a changing magnetic field is generated. The stator (composed of windings) is located around the rotor. The change in the magnetic field induces current in the coil, thereby generating electrical energy.

[0003] The principle of steam-to-electricity technology is to convert the thermal energy of steam into mechanical energy, and then from mechanical energy into electrical energy. Water is heated and pressurized in the steam generator to become high-temperature and high-pressure steam. The heat is transferred to the water through the heat exchanger, causing it to reach boiling point and generate steam. The generated steam enters the steam turbine and drives the turbine blades to rotate. The steam turbine converts the thermal energy of steam into mechanical energy. Specifically, the steam drives the turbine blades to rotate, which in turn drives the generator rotor to rotate. The steam turbine drives the generator to rotate, and the generator converts mechanical energy into electrical energy. This process is achieved through the principle of electromagnetic induction. The rotating generator rotor cuts the magnetic lines of force, generates current, and finally outputs it to the power grid.

[0004] The above two power generation methods are common power generation technologies in reality, each with its own advantages and disadvantages. For wind power generation, it needs to rely on external wind to drive and is greatly affected by weather and environment. For steam power generation, it needs to consume more energy to generate electricity. The existing technology lacks technology that integrates and complements the two power generation methods to reduce the impact of the shortcomings. Summary of the invention

[0005] In view of the shortcomings of the prior art, the purpose of the present invention is to provide an electrically coupled wind and steam complementary power generation device to solve the problems raised in the above-mentioned background technology. The present invention has a novel structure. Through the cooperation of the heat transfer component, the transmission component and the drive component, when wind power is generated, part of the kinetic energy is transferred to the water tank for frictional heating, and the heat is transferred to the heating chamber to preheat the water to a certain extent. When steam power is generated, the temperature in the heating chamber is transferred to the water tank for pre-storage, thereby reducing the time spent on heating water to generate steam next time. The two power generation methods cooperate with each other to improve power generation efficiency and reduce energy consumption.

[0006] In order to achieve the above-mentioned object, the present invention is realized by the following technical scheme: an electrically coupled wind and steam complementary power generation device, comprising a steam box, a heating chamber is provided inside the steam box, and a combustion chamber is provided at the bottom of the heating chamber, a heat transfer component is provided on the top of the steam box, the heat transfer component comprises a water tank, a water storage layer is provided inside the water tank, and two vertical pipes are connected to the bottom of the water storage layer, the bottom of the vertical pipes are inserted into the heating chamber, and a serpentine pipe is fixed at the bottom of the two vertical pipes, a driving component is provided on the top of the steam box, the driving component comprises a first rotating disk, the first rotating disk is rotatably installed on the top of the steam box, and a second rotating disk is rotatably installed at the bottom of the water tank, the vertical pipe passes through the first rotating disk and the second rotating disk, a power generation device is provided at the bottom of the front end of the steam box, and a fan rod is fixedly installed on the top of the power generation device, and a fan blade is installed on the top of the fan rod, a transmission component is provided on the top of the water tank, the transmission component comprises a shaft ring, a shaft ring is rotatably installed on the top of the water tank, and the shaft ring is transmission-connected to the rotating shaft of the fan blade, and water is filled in the water storage layer and the heating chamber.

[0007] Furthermore, the driving assembly also includes a second gear, a second gear is fixed on the outer end surface of the first turntable, and one side of the second gear is meshedly connected to the first gear, the steam box is located at the bottom of the first gear and a motor is fixed, and the output end of the motor is fixedly connected to the first gear.

[0008] Furthermore, the heat transfer component also includes a friction layer, a friction layer is arranged between the inner wall of the water tank and the outer wall of the water storage layer, and friction lines are arranged on the outer wall of the water storage layer, three groups of friction plates are equidistantly arranged inside the friction layer, and contact grooves are opened on the inner surfaces of the friction plates, the contact grooves are in sliding contact with the friction lines, and the top of the friction plate is fixedly connected to the shaft ring.

[0009] Furthermore, two turbine boxes are installed on the top surface of the second turntable penetrating into the water storage layer, and the bottom of the turbine box is connected to two vertical pipes. A connecting rod is fixed at the turbine axis of the turbine box, and a third gear is fixed at the outer end of the connecting rod.

[0010] Furthermore, the third gears on the top of the two turbine boxes are staggered up and down, an inner gear ring is fixed inside the water storage layer, and an outer gear ring is provided at the bottom of the inner gear ring, the outer gear ring is meshed and connected with the third gear at the bottom, and the inner gear ring is meshed and connected with the third gear at the top.

[0011] Furthermore, a fixing frame is fixed to the top of the outer gear ring, the inner gear ring is fixed on the fixing frame, and the top of the fixing frame is fixedly connected to the top of the water tank, and an insulation layer is provided on the inner wall of the water tank.

[0012] Furthermore, the bottoms of the two serpentine tubes are fixedly connected, and the bottoms of the serpentine tubes are rotatably mounted on the bottom inner wall of the heating chamber via bearings.

[0013] Furthermore, the transmission assembly also includes a first bevel gear, the top of the shaft ring is fixed with the first bevel gear, one side of the first bevel gear is meshedly connected with a second bevel gear, a rotating rod is fixed at the center of the second bevel gear, and the other end of the rotating rod is rotatably mounted on the fan rod.

[0014] Furthermore, a transmission belt is installed on the surface of the rotating rod, and a pulley at the other end of the transmission belt is fixedly connected to the rotating shaft of the fan blade.

[0015] Furthermore, an air outlet pipe is provided on one side of the top of the steam box, and the air outlet pipe is connected to the steam turbine. A return pipe is provided on the other side of the top of the steam box, and the return pipe is connected to the condenser at the outlet end of the steam turbine.

[0016] Beneficial effects of the present invention:

[0017] 1. The present invention drives the rotating rod to rotate through a transmission belt, and the second bevel gear meshes with the first bevel gear to drive the shaft ring and the three friction plates at the bottom to rotate along the friction layer. The friction plates contact with the friction grooves through the contact grooves on the inner surfaces, thereby generating friction during the rotation process. The inner wall of the water storage layer is set to a material that is easy to conduct heat, and the heat generated by friction is transferred to the water in the water storage layer. Subsequently, the water in the water storage layer enters the heating chamber through the vertical pipe and the serpentine pipe and circulates, thereby preheating the water in the heating chamber to a certain extent.

[0018] 2. Because of the heat preservation layer arranged on the inner wall of the water tank, the heat generated by friction in the water storage layer or the heat transferred through the heating chamber can be stored inside the water storage layer, thus avoiding rapid loss of heat.

[0019] 3. When the present invention is performing wind power generation, the mechanical energy of the fan blades is transmitted to the inside of the water tank, and heat is generated by friction to heat the water in the water storage layer. In this process, the motor drives the first gear to rotate and mesh with the second gear. At this time, the vertical pipe, the serpentine pipe, the first turntable and the second turntable rotate synchronously, and the two turbine boxes on the top of the second turntable are respectively meshed and connected with the inner gear ring and the outer gear ring through the third gear on the connecting rod. Because the third gear is staggered, the corresponding inner gear ring and outer gear ring are also staggered, so there will be no movement interference. In this process, the turbines in the two turbine boxes rotate in opposite directions, one absorbs water and the other discharges water, and the water in the water storage layer is moved in a circular shape along the vertical pipe and the serpentine pipe. Because the serpentine pipe is rotating, the heat of the water storage layer can be transferred to the heating chamber to preheat the water inside it, which is convenient for subsequent heating to generate steam. At the same time, the rotation of the serpentine pipe can improve the efficiency of heat transfer and make the heat uniform.

[0020] 4. When the present invention is performing steam power generation, the heat generated by the combustion chamber is transferred from the bottom to the heating chamber. At this time, the serpentine tube rotates to stir the water in the heating chamber to improve the uniformity and efficiency of heat mixing. At the same time, the water in the water storage layer flows in a ring along the serpentine tube, and part of the heat in the heating chamber is absorbed into the water storage layer for temporary storage, so that it can be sent out to increase the water temperature when used next time.

[0021] 5. Compared with the prior art, the present invention, through the cooperation of the heat transfer component, the transmission component and the drive component, during wind power generation, part of the kinetic energy is transferred to the water tank for frictional heating, and the heat is transferred to the heating chamber to preheat the water to a certain extent. During steam power generation, the temperature in the heating chamber is transferred to the water tank for pre-storage, thereby reducing the time spent on heating water to generate steam next time. The two power generation methods cooperate with each other to improve power generation efficiency and reduce energy consumption. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the overall structure of an electrically coupled wind and steam complementary power generation device of the present invention;

[0023] Figure 2 A schematic diagram of the internal structure of a steam box of an electrically coupled wind and steam complementary power generation device of the present invention;

[0024] Figure 3 This is a schematic diagram of the structure of a driving component of an electrically coupled wind and steam complementary power generation device of the present invention;

[0025] Figure 4 This is a schematic diagram of the transmission component structure of an electrically coupled wind and steam complementary power generation device of the present invention;

[0026] Figure 5 This is a schematic diagram of the internal structure of a water tank of an electrically coupled wind and steam complementary power generation device of the present invention;

[0027] Figure 6 This is a schematic diagram of the position distribution of the inner gear ring and the outer gear ring of an electrically coupled wind and steam complementary power generation device of the present invention;

[0028] Figure 7 A schematic diagram of the connection between the friction plate and the friction pattern of an electrically coupled wind and steam complementary power generation device of the present invention;

[0029] Figure 8 The present invention is a schematic diagram of the connection between a drive assembly and a serpentine pipe of an electrically coupled wind and steam complementary power generation device.

[0030] In the figure: 1. steam box; 11. return pipe; 12. exhaust pipe; 13. heating chamber; 14. combustion chamber; 2. power generation equipment; 3. fan rod; 31. fan blade; 4. transmission assembly; 41. shaft ring; 42. first bevel gear; 43. second bevel gear; 44. rotating rod; 45. transmission belt; 5. heat transfer assembly; 51. serpentine pipe; 52. vertical pipe; 53. water tank; 54. friction layer; 55. water storage layer; 56. friction pattern; 57. friction plate; 58. turbine box; 59. contact groove; 510. connecting rod; 511. third gear; 512. inner gear ring; 513. outer gear ring; 514. fixed frame; 6. driving assembly; 61. motor; 62. first gear; 63. second gear; 64. first turntable; 65. second turntable. DETAILED DESCRIPTION

[0031] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0032] See also Figures 1 to 8 The present invention provides a technical solution: an electrically coupled wind and steam complementary power generation device, comprising a steam box 1, wherein a heating chamber 13 is provided inside the steam box 1, and a combustion chamber 14 is provided at the bottom of the heating chamber 13, a heat transfer component 5 is provided on the top of the steam box 1, and the heat transfer component 5 comprises a water tank 53, wherein a water storage layer 55 is provided inside the water tank 53, and two vertical pipes 52 are connected to the bottom of the water storage layer 55, the bottom of the vertical pipes 52 are inserted into the heating chamber 13, and a serpentine pipe 51 is fixed at the bottom of the two vertical pipes 52, a driving component 6 is provided on the top of the steam box 1, and the driving component 6 comprises a first rotating disk 64, which is rotatably installed on the top of the steam box 1, and a second rotating disk 65 is rotatably installed at the bottom of the water tank 53, and the vertical pipe 52 passes through the first rotating disk 64 and the second rotating disk 65, A power generation device 2 is provided at the bottom of the front end of the steam box 1, and a fan rod 3 is fixedly installed on the top of the power generation device 2, and a fan blade 3 is installed on the top of the fan rod 3. A transmission component 4 is provided on the top of the water tank 53, and the transmission component 4 includes a shaft ring 41. The shaft ring 41 is rotatably installed on the top of the water tank 53, and the shaft ring 41 is transmission-connected with the rotating shaft of the fan blade 31. The water storage layer 55 and the heating chamber 13 are both filled with water. The wind power generation of this device is mainly small-scale wind power generation, and the height will not be too high. A transmission belt 45 can be installed for transmission coordination. When using the device, a certain amount of water is added to the heating chamber 13 and the water storage layer 55, and the wind power generation and steam power generation are connected to the water tank 53 through the transmission component 4 and the heat transfer component 5. Heat is transferred through the water tank 53 to improve the power generation efficiency and the speed of increasing the water temperature in the steam box 1.

[0033] In this embodiment, the driving assembly 6 also includes a second gear 63, a second gear 63 is fixed on the outer end surface of the first rotating disk 64, and one side of the second gear 63 is meshedly connected to the first gear 62, the steam box 1 is fixed with a motor 61 at the bottom of the first gear 62, and the output end of the motor 61 is fixedly connected to the first gear 62, two turbine boxes 58 are installed on the top surface of the second rotating disk 65 that penetrates the water storage layer 55, and the bottom of the turbine box 58 is connected to the two vertical pipes 52, a connecting rod 510 is fixed at the turbine axis of the turbine box 58, and a third gear 511 is fixed on the outer end of the connecting rod 510, and the third gears 511 on the top of the two turbine boxes 58 are staggered up and down, and the water storage An inner gear ring 512 is fixed inside the layer 55, and an outer gear ring 513 is provided at the bottom of the inner gear ring 512, the outer gear ring 513 is meshed and connected with the third gear 511 at the bottom, and the inner gear ring 512 is meshed and connected with the third gear 511 at the top, a fixing frame 514 is fixed on the top of the outer gear ring 513, the inner gear ring 512 is fixed on the fixing frame 514, and the top of the fixing frame 514 is fixedly connected with the top of the water tank 53, and an insulation layer is provided on the inner wall of the water tank 53, the bottoms of the two serpentine tubes 51 are fixedly connected, and the bottom of the serpentine tube 51 is rotatably mounted on the bottom inner wall of the heating chamber 13 through a bearing, and the function of the driving component 6 has different effects on wind power generation and steam power generation. When generating electricity, the mechanical energy of the fan blades 31 is transmitted to the inside of the water tank 53, and heat is generated by friction to heat the water in the water storage layer 55. In this process, the motor 61 drives the first gear 62 to rotate and mesh with the second gear 63. At this time, the vertical pipe 52, the serpentine pipe 51, the first turntable 64 and the second turntable 65 rotate synchronously, and the two turbine boxes 58 on the top of the second turntable 65 are respectively meshed and connected with the inner ring gear 512 and the outer ring gear 513 through the third gear 511 on the connecting rod 510. Because the third gear 511 is staggered, the corresponding inner ring gear 512 and outer ring gear 513 are also staggered, so there will be no movement interference. In this process, the turbines in the two turbine boxes 58 rotate in opposite directions, one absorbing water and the other Water is discharged, and the water in the water storage layer 55 is moved in a circular shape along the vertical pipe 52 and the serpentine tube 51. Because the serpentine tube 51 is rotating, the heat of the water storage layer 55 can be transferred to the heating chamber 13 to preheat the water inside it, which is convenient for subsequent heating to generate steam. At the same time, the rotation of the serpentine tube 51 can improve the efficiency of heat transfer and make the heat uniform. For steam power generation, the heat generated by the combustion chamber 14 is transferred from the bottom to the heating chamber 13. At this time, the serpentine tube 51 rotates to stir the water in the heating chamber 13 to improve the uniformity and efficiency of heat mixing. At the same time, the water in the water storage layer 55 flows in a circular shape along the serpentine tube 51, and part of the heat in the heating chamber 13 is absorbed into the water storage layer 55 for temporary storage, so that it can be sent out to increase the water temperature when used next time.

[0034] In this embodiment, the heat transfer component 5 also includes a friction layer 54, a friction layer 54 is provided between the inner wall of the water tank 53 and the outer wall of the water storage layer 55, and a friction pattern 56 is provided on the outer wall of the water storage layer 55, three groups of friction plates 57 are equidistantly provided inside the friction layer 54, and a contact groove 59 is provided on the inner surface of the friction plate 57, and the contact groove 59 is in sliding contact with the friction pattern 56, and the top of the friction plate 57 is fixedly connected to the shaft ring 41, and the transmission component 4 also includes a first bevel gear 42, the top of the shaft ring 41 is fixed with the first bevel gear 42, one side of the first bevel gear 42 is meshedly connected with the second bevel gear 43, a rotating rod 44 is fixed at the center of the second bevel gear 43, and the other end of the rotating rod 44 is rotatably installed on the fan rod 3, a transmission belt 45 is installed on the surface of the rotating rod 44, and the other end of the transmission belt 45 is a pulley It is fixedly connected to the rotating shaft of the fan blade 31. When the fan blade 31 rotates, the transmission belt 45 drives the rotating rod 44 to rotate. The second bevel gear 43 engages with the first bevel gear 42 to drive the shaft ring 41 and the three friction plates 57 at the bottom to rotate along the friction layer 54. The friction plate 57 contacts the friction groove through the contact groove 59 on the inner surface, thereby generating friction during the rotation. The inner wall of the water storage layer 55 is set to a heat-conducting material, which transfers the heat generated by friction to the water in the water storage layer 55. Then the water in the water storage layer 55 enters the heating chamber 13 through the vertical pipe 52 and the serpentine pipe 51 and circulates, thereby preheating the water in the heating chamber 13 to a certain extent. Because the insulation layer is set on the inner wall of the water tank 53, the heat generated by friction in the water storage layer 55 or the heat transferred through the heating chamber 13 can be stored in the water storage layer 55 to avoid rapid heat loss.

[0035] In this embodiment, an outlet pipe 12 is provided on one side of the top of the steam box 1, and the outlet pipe 12 is connected to the steam turbine, and a return pipe 11 is provided on the other side of the top of the steam box 1, and the return pipe 11 is connected to the condenser at the outlet end of the steam turbine. The use of the outlet pipe 12 and the return pipe 11 of the steam box 1 in this part is the same as the technical method of steam delivery and cooling water return in the prior art. The steam enters the steam turbine and is connected to the power generation equipment 2 to perform steam power generation.

[0036] When the device is used, a certain amount of water is added to the heating chamber 13 and the water storage layer 55. The function of the driving component 6 has different effects on wind power generation and steam power generation. When wind power generation is performed, the mechanical energy of the fan blades 31 is transmitted to the inside of the water tank 53, and heat is generated by friction to heat the water in the water storage layer 55. When the fan blades 31 rotate, the transmission belt 45 drives the rotating rod 44 to rotate, and the second bevel gear 43 is engaged with the first bevel gear 42 to drive the shaft ring 41 and the three friction plates 57 at the bottom to rotate along the friction layer 54. The friction plate 57 contacts the friction groove through the contact groove 59 on the inner surface, thereby During the rotation, friction is generated. The inner wall of the water storage layer 55 is set as a material that is easy to conduct heat. The heat generated by friction is transferred to the water in the water storage layer 55. Then, the water in the water storage layer 55 enters the heating chamber 13 through the vertical pipe 52 and the serpentine pipe 51 and circulates to preheat the water in the heating chamber 13 to a certain extent. Because the insulation layer is set on the inner wall of the water tank 53, the heat generated by friction in the water storage layer 55 or the heat transferred through the heating chamber 13 can be stored in the water storage layer 55 to avoid rapid heat loss. In this process, the motor 61 drives the first gear 62 to rotate and the second gear 6 3 meshes, at this time, the vertical pipe 52, the serpentine pipe 51, the first rotating disk 64 and the second rotating disk 65 rotate synchronously, and the two turbine boxes 58 on the top of the second rotating disk 65 are respectively meshed and connected with the inner gear ring 512 and the outer gear ring 513 through the third gear 511 on the connecting rod 510. Because the third gear 511 is staggered, the corresponding inner gear ring 512 and the outer gear ring 513 are also staggered, so there will be no movement interference. In this process, the turbines in the two turbine boxes 58 rotate in opposite directions, one absorbs water and the other discharges water, so that the water in the water storage layer 55 is moved in a circular manner along the vertical pipe 52 and the serpentine pipe 51. Because the serpentine pipe 51 is a rotating The serpentine tube 51 is movable, so the heat of the water storage layer 55 can be transferred to the heating chamber 13 to preheat the water inside it, which is convenient for subsequent heating to generate steam. At the same time, the rotation of the serpentine tube 51 can improve the efficiency of heat transfer and make the heat uniform. For steam power generation, the heat generated by the combustion chamber 14 is transferred from the bottom to the heating chamber 13. At this time, the serpentine tube 51 rotates to stir the water in the heating chamber 13 to improve the uniformity and efficiency of heat mixing. At the same time, the water in the water storage layer 55 flows in a ring along the serpentine tube 51, and part of the heat in the heating chamber 13 is absorbed into the water storage layer 55 for temporary storage, so that it can be sent out to increase the water temperature when used next time.

[0037] The basic principles and main features of the present invention and the advantages of the present invention are shown and described above. For those skilled in the art, it is obvious that the present invention is not limited to the details of the above exemplary embodiments, and the present invention can be implemented in other specific forms without departing from the spirit or basic characteristics of the present invention.

[0038] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. An electrically coupled wind and steam complementary power generation device, comprising a steam box (1), characterized in that: A heating chamber (13) is provided inside the steam box (1), and a combustion chamber (14) is provided at the bottom of the heating chamber (13). A heat transfer component (5) is provided on the top of the steam box (1), and the heat transfer component (5) comprises a water tank (53). A water storage layer (55) is provided inside the water tank (53), and two vertical pipes (52) are connected to the bottom of the water storage layer (55). The bottom of the vertical pipes (52) is inserted into the heating chamber (13), and a serpentine pipe (51) is fixed to the bottom of the two vertical pipes (52). A driving component (6) is provided on the top of the steam box (1), and the driving component (6) comprises a first rotating disk (64), and the first rotating disk (64) is rotatably mounted on the steam box (1). ) top, and a second turntable (65) is rotatably mounted at the bottom of the water tank (53), the vertical pipe (52) passes through the first turntable (64) and the second turntable (65), a power generation device (2) is arranged at the bottom of the front end of the steam box (1), and a fan rod (3) is fixedly mounted on the top of the power generation device (2), and a fan blade (31) is mounted on the top of the fan rod (3), a transmission component (4) is arranged on the top of the water tank (53), and the transmission component (4) includes a shaft ring (41), a shaft ring (41) is rotatably mounted on the top of the water tank (53), and the shaft ring (41) is connected to the rotating shaft of the fan blade (31), and the water storage layer (55) and the heating chamber (13) are both filled with water.

2. The electrically coupled wind and steam complementary power generation device according to claim 1, characterized in that: The driving assembly (6) further comprises a second gear (63), the second gear (63) being fixed on the outer end surface of the first rotating disk (64), and one side of the second gear (63) being meshingly connected with the first gear (62), and a motor (61) being fixed on the bottom of the first gear (62) of the steam box (1), and an output end of the motor (61) being fixedly connected to the first gear (62).

3. The electrically coupled wind and steam complementary power generation device according to claim 1, characterized in that: The heat transfer component (5) further comprises a friction layer (54), wherein the friction layer (54) is arranged between the inner wall of the water tank (53) and the outer wall of the water storage layer (55), and the outer wall of the water storage layer (55) is provided with friction lines (56), three groups of friction plates (57) are arranged at equal intervals inside the friction layer (54), and contact grooves (59) are provided on the inner surfaces of the friction plates (57), wherein the contact grooves (59) are in sliding contact with the friction lines (56), and the top of the friction plate (57) is fixedly connected to the shaft ring (41).

4. The electrically coupled wind and steam complementary power generation device according to claim 3, characterized in that: Two turbine boxes (58) are installed on the top surface of the second turntable (65) that penetrates the water storage layer (55), and the bottom of the turbine box (58) is connected to two vertical pipes (52). A connecting rod (510) is fixed at the turbine axis of the turbine box (58), and a third gear (511) is fixed to the outer end of the connecting rod (510).

5. The electrically coupled wind and steam complementary power generation device according to claim 4, characterized in that: The third gears (511) at the top of the two turbine boxes (58) are staggered in the upper and lower positions, an inner gear ring (512) is fixed inside the water storage layer (55), and an outer gear ring (513) is provided at the bottom of the inner gear ring (512), the outer gear ring (513) is meshedly connected with the third gear (511) at the bottom, and the inner gear ring (512) is meshedly connected with the third gear (511) at the top.

6. The electrically coupled wind and steam complementary power generation device according to claim 5, characterized in that: A fixing frame (514) is fixed to the top of the outer gear ring (513), the inner gear ring (512) is fixed on the fixing frame (514), and the top of the fixing frame (514) is fixedly connected to the top of the water tank (53), and a heat-insulating layer is provided on the inner wall of the water tank (53).

7. The electrically coupled wind and steam complementary power generation device according to claim 6, characterized in that: The bottoms of the two serpentine tubes (51) are fixedly connected, and the bottom of the serpentine tube (51) is rotatably mounted on the bottom inner wall of the heating chamber (13) via a bearing.

8. The electrically coupled wind and steam complementary power generation device according to claim 1, characterized in that: The transmission assembly (4) further comprises a first bevel gear (42), the top of the shaft ring (41) being fixed with the first bevel gear (42), one side of the first bevel gear (42) being meshingly connected with a second bevel gear (43), a rotating rod (44) being fixed at the center of the second bevel gear (43), and the other end of the rotating rod (44) being rotatably mounted on the fan rod (3).

9. The electrically coupled wind and steam complementary power generation device according to claim 8, characterized in that: A transmission belt (45) is installed on the surface of the rotating rod (44), and a pulley at the other end of the transmission belt (45) is fixedly connected to the rotating shaft of the fan blade (31).

10. The electrically coupled wind and steam complementary power generation device according to claim 1, characterized in that: An air outlet pipe (12) is provided on one side of the top of the steam box (1), and the air outlet pipe (12) is connected to the steam turbine. A return pipe (11) is provided on the other side of the top of the steam box (1), and the return pipe (11) is connected to the condenser at the outlet end of the steam turbine.

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