High-efficiency electric energy recovery generator with voltage measurement function

Abstract

The application discloses a high-efficiency power recovery generator with voltage measuring function, which comprises a supporting frame; a mounting plate is slidably installed on the supporting frame; a storage battery is installed on the mounting plate; a power generation structure is connected to the storage battery; the power generation structure is installed on the mounting plate; a plurality of buffer dampers are installed on the mounting plate; the buffer dampers are installed on the inner wall of the supporting frame; a damping structure is installed on the buffer dampers; a temperature guide cover is installed on the mounting plate; a heat dissipation structure is connected to the temperature guide cover; and an agitating structure is installed on the heat dissipation structure. The buffer dampers and buffer springs can buffer the mounting plate and the equipment thereon, reduce vibration generated during the operation of the power generation equipment, promote the circulation of the cooling liquid in the temperature guide cover during the vibration of the power generation equipment, improve the heat dissipation effect of the generator, prolong the service life of the generator, realize the cyclic power generation of the generator, and realize the cyclic use of electric energy.

Description

Technical Field

[0001] This invention relates to the field of power generation equipment technology, specifically to a high-efficiency energy recovery generator with voltage measurement function. Background Technology

[0002] A generator is a mechanical device that converts other forms of energy into electrical energy. It is usually driven by a water turbine, steam turbine, diesel engine or other power machinery, which converts the energy generated by water flow or air flow into mechanical energy, and then transmits it to the generator, which then converts it into electrical energy.

[0003] In existing technologies, generators and connected equipment components generate significant vibrations during operation, leading to loosening of generator set connections and accelerated wear of some parts. Furthermore, generators produce heat, and prolonged exposure to high temperatures accelerates corrosion in the generator rotor and stator materials, shortening the generator's lifespan. Therefore, a high-efficiency energy recovery generator with voltage measurement capabilities is needed to achieve energy recycling between the battery, drive motor, generator, voltage regulator, transformer, meter, and safety device. This maximizes energy utilization and power generation efficiency, improves generator heat dissipation, and extends generator lifespan, enabling cyclical power generation and reuse to meet people's needs. Summary of the Invention

[0004] The purpose of this invention is to provide a generator with high-efficiency energy recovery and voltage measurement function to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a high-efficiency energy recovery generator with voltage measurement function, comprising a support frame; a mounting plate is slidably mounted on the support frame, a battery is mounted on the mounting plate, a power generation structure is connected to the battery, the power generation structure is mounted on the mounting plate, multiple buffer dampers are mounted on the mounting plate, the buffer dampers are mounted on the inner wall of the support frame, a shock absorption structure is mounted on the buffer dampers, a temperature conducting cover is mounted on the mounting plate, a heat dissipation structure is connected to the temperature conducting cover, and an agitation structure is mounted on the heat dissipation structure.

[0006] Preferably, the power generation structure includes a first motor and a second motor, both mounted on the top side of the mounting plate. A first transmission wheel is mounted at the output end of the first motor, and a multi-stage transmission wheel is mounted at the output end of the second motor. A first transmission belt is driven by the same first transmission wheel and the multi-stage transmission wheels. A second transmission belt is driven by the multi-stage transmission wheels. A generator is mounted on the top side of the mounting plate, with a second transmission wheel mounted at the output end of the generator. A second transmission belt is driven by the second transmission wheel. A voltage regulator is electrically connected to the generator, and a transformer is electrically connected to the voltage regulator. A voltmeter is electrically connected to the generator, voltage regulator, and transformer. An ammeter is electrically connected to the generator and voltage regulator. An electricity meter is electrically connected to the transformer and is electrically connected to the second motor. A charger is electrically connected to the electricity meter and is electrically connected to the charger, which is connected to a battery. A speed sensor is electrically connected to the second motor, corresponding to the multi-stage transmission wheels, and is electrically connected to the battery. A safety switch is electrically connected to the transformer.

[0007] Preferably, the shock absorption structure includes multiple buffer springs, one end of which is mounted on the inner wall of the support frame, and the other end of which is mounted on the bottom side of the mounting plate.

[0008] Preferably, the heat dissipation structure includes heat-conducting fins, which are installed on the inner wall of the heat-conducting cover and are in contact with the generator. One end of a corrugated conveying pipe is installed on the heat-conducting cover, and the other end of the corrugated conveying pipe passes through the mounting plate and is fitted with a U-shaped flexible hose. One end of the U-shaped flexible hose is fitted with a coolant tank, which is connected to the U-shaped flexible hose. The coolant tank is mounted on a support frame, and a connecting frame is mounted on the support frame. The U-shaped flexible hose is installed on the inner wall of the connecting frame, and a connecting shaft is rotatably mounted on the connecting frame. A rotating frame is mounted on the connecting shaft, and two extrusion rollers are rotatably mounted on the rotating frame. Both extrusion rollers are in contact with the U-shaped flexible hose. One end of a return pipe is installed on the heat-conducting cover, and the other end of the return pipe is installed on the coolant tank and is connected to the coolant tank.

[0009] Preferably, a connecting seat is installed on the bottom side of the mounting plate, one end of a connecting rod is rotatably mounted on the connecting seat, and a linkage bevel gear is rotatably mounted on the other end of the connecting rod. The linkage bevel gear is installed on one end of the connecting shaft.

[0010] Preferably, the corrugated conveying pipe is connected to the U-shaped flexible hose and the corrugated conveying pipe is connected to the temperature-conducting cover.

[0011] Preferably, the agitation structure includes a linkage shaft, which is rotatably mounted on the coolant tank. A driven bevel gear is mounted on one end of the linkage shaft, and the driven bevel gear meshes with the linkage bevel gear. Multiple agitators are mounted on the linkage shaft, and the agitators are located inside the coolant tank.

[0012] Compared with the prior art, the beneficial effects of the present invention are:

[0013] (1) In this invention, the first motor is powered by a battery to operate, which in turn drives the second motor to operate and generate electricity for the generator, powering the second motor and charging the battery. At this time, the battery is turned off, and the second motor can operate for a period of time under the power output of the generator. When the generator power is insufficient and the speed of the multi-stage transmission wheel decreases, the speed sensor will detect it and turn the battery back on to power the first motor, thereby increasing the power output of the generator again. This process is repeated to increase the continuous operating time of the generator and reduce power consumption. The voltage and current of the generator at each stage can be monitored by using a voltmeter and an ammeter. The buffer damper and buffer spring can buffer the mounting plate and the equipment on it, reducing the vibration generated when the generator is running. In addition, the coolant can be circulated in the heat conduction cover during the vibration of the generator, improving the heat dissipation effect of the generator and thus increasing the service life of the generator. This realizes the generator's cyclic power generation and the cyclic use of electrical energy.

[0014] (2) The coolant flowing back into the coolant tank can distribute the heat of the coolant evenly under the stirring of the stir bar, so that the heat can be transferred to the coolant tank more quickly, and then the heat can be dissipated to the external environment through the coolant tank, thus improving the cooling effect of the coolant. Attached Figure Description

[0015] Figure 1 This is a three-dimensional structural diagram of a generator with high-efficiency energy recovery and voltage measurement function proposed in this invention;

[0016] Figure 2 This is a schematic diagram of the generator connection structure of a high-efficiency energy recovery generator with voltage measurement function proposed in this invention;

[0017] Figure 3 This is a side view of a generator with voltage measurement function that enables high-efficiency energy recovery, as proposed in this invention.

[0018] Figure 4 This is a schematic diagram of a buffer spring structure for a high-efficiency energy recovery generator with voltage measurement function proposed in this invention.

[0019] Figure 5 This is a schematic diagram of the linkage bevel gear connection structure of a high-efficiency energy recovery generator with voltage measurement function proposed in this invention;

[0020] Figure 6 This is a schematic diagram of the coolant tank structure of a high-efficiency energy recovery generator with voltage measurement function proposed in this invention;

[0021] Figure 7This is a cross-sectional view of the coolant tank of a generator with high-efficiency energy recovery and voltage measurement function proposed in this invention.

[0022] In the diagram: 1. Support frame; 2. Mounting plate; 3. Battery; 301. First motor; 302. Second motor; 303. First drive wheel; 304. Multi-stage drive wheel; 305. First drive belt; 306. Safety switch; 307. Speed ​​sensor; 308. Charger; 309. Meter; 310. Ammeter; 311. Voltmeter; 312. Transformer; 313. Second drive belt; 314. Generator; 315. Second drive wheel; 31 6. Voltage stabilizer; 4. Buffer damper; 401. Buffer spring; 5. Temperature guide cover; 501. Temperature guide fins; 502. Corrugated conveying pipe; 503. U-shaped hose; 504. Coolant tank; 505. Connecting frame; 506. Connecting shaft; 507. Rotating frame; 508. Extrusion wheel; 509. Return pipe; 510. Connecting seat; 511. Connecting rod; 512. Linkage bevel gear; 513. Linkage shaft; 514. Driven bevel gear; 515. Stirring rod. Detailed Implementation

[0023] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0024] Example 1: Please refer to Figure 1-7 This invention provides a technical solution: a high-efficiency energy recovery generator with voltage measurement function, including a support frame 1; a mounting plate 2 is slidably mounted on the support frame 1, a battery 3 is mounted on the mounting plate 2, a power generation structure is connected to the battery 3, the power generation structure is mounted on the mounting plate 2, multiple buffer dampers 4 are mounted on the mounting plate 2, the buffer dampers 4 are mounted on the inner wall of the support frame 1, a shock absorption structure is mounted on the buffer dampers 4, a temperature conducting cover 5 is mounted on the mounting plate 2, a heat dissipation structure is connected to the temperature conducting cover 5, and an agitation structure is mounted on the heat dissipation structure. The power generation structure can be used to generate electricity to charge the battery 3. When the power generation structure is in operation, the vibration generated by the power generation structure can be reduced by setting the shock absorption structure. At the same time, under the continuous vibration of the power generation structure, the heat dissipation structure can drive the coolant to cool the power generation equipment. The agitation structure can improve the cooling effect of the coolant.

[0025] Furthermore, the power generation structure includes a first motor 301 and a second motor 302, both mounted on the top side of the mounting plate 2. A first transmission wheel 303 is mounted at the output end of the first motor 301, and a multi-stage transmission wheel 304 is mounted at the output end of the second motor 302. A first transmission belt 305 is connected to both the first transmission wheel 303 and the multi-stage transmission wheel 304. A second transmission belt 313 is connected to the multi-stage transmission wheel 304. A generator 314 is mounted on the top side of the mounting plate 2. A second drive wheel 315 is installed at the output end of generator 314. A second drive belt 313 is driven and installed on the second drive wheel 315. A voltage regulator 316 is electrically connected to generator 314. A transformer 312 is electrically connected to voltage regulator 316. A voltmeter 311 is electrically connected to generator 314, voltage regulator 316, and transformer 312. An ammeter 310 is electrically connected to generator 314 and voltage regulator 316. A meter 309 is electrically connected to transformer 312. Meter 309 is electrically connected to second motor 302. A charger 308 is electrically connected to Table 309, and the charger 308 is electrically connected to the battery 3. A speed sensor 307 is electrically connected to the second motor 302, and the speed sensor 307 corresponds to the multi-stage transmission wheel 304. The speed sensor 307 is electrically connected to the battery 3. A safety switch 306 is electrically connected to the transformer 312. The first motor 301 can be powered by the battery 3. By turning on the first motor 301, the multi-stage transmission wheel 304 can be driven to rotate, and the multi-stage transmission wheel 304 will drive the second transmission wheel 3. Rotation of the second transmission wheel 315 causes the output shaft of the generator 314 to rotate, generating electricity. The generated electricity is transmitted to the voltage regulator 316 and then output to the transformer 312. The second motor 302 is then powered by the meter 309. At this time, the power supply from the battery 3 to the first motor 301 can be turned off. Under the action of the power output from the generator 314, the second motor 302 can run continuously for a period of time. On the other hand, the power generated by the generator 314 can charge the battery 3 through the charger 308.

[0026] Furthermore, the shock absorption structure includes multiple buffer springs 401. One end of the buffer spring 401 is installed on the inner wall of the support frame 1, and the other end of the buffer spring 401 is installed on the bottom side of the mounting plate 2. When the first motor 301, the second motor 302, and the generator 314 are in operation, the vibration generated will act on the mounting plate 2, causing the mounting plate 2 to reciprocate to press the buffer damper 4 and the buffer spring 401 under the action of vibration, thereby playing a shock absorption role.

[0027] Furthermore, the heat dissipation structure includes heat-conducting fins 501, which are installed on the inner wall of the heat-conducting cover 5 and are in contact with the generator 314. One end of a corrugated conveying pipe 502 is installed on the heat-conducting cover 5, and the other end of the corrugated conveying pipe 502 passes through the mounting plate 2 and is fitted with a U-shaped flexible hose 503. A coolant tank 504 is installed at one end of the U-shaped flexible hose 503, and the coolant tank 504 is connected to the U-shaped flexible hose 503. 04 is installed on support frame 1, and a connecting frame 505 is installed on support frame 1. U-shaped hose 503 is installed on the inner wall of connecting frame 505. Connecting shaft 506 is rotatably installed on connecting frame 505. Rotating frame 507 is installed on connecting shaft 506. Two extrusion rollers 508 are rotatably installed on rotating frame 507. Both extrusion rollers 508 are in contact with U-shaped hose 503. One end of return pipe 509 is installed on temperature guide cover 5. The other end of return pipe 509 is installed on cooling... On the liquid tank 504, the return pipe 509 is connected to the coolant tank 504. A connecting seat 510 is installed on the bottom side of the mounting plate 2. One end of the connecting rod 511 is rotatably installed on the connecting seat 510, and a linkage bevel gear 512 is rotatably installed on the other end of the connecting rod 511. The linkage bevel gear 512 is installed on one end of the connecting shaft 506. The corrugated conveying pipe 502 is connected to the U-shaped hose 503 and the temperature guide cover 5. The heat generated by the generator 314 during operation can be conducted to the temperature guide fins 501 and then to the coolant in the temperature guide cover 5 through the temperature guide fins 501. During the vibration process, the mounting plate 2 can cause the extrusion roller 508 to reciprocate to extrude the U-shaped hose 503, apply pressure to the U-shaped hose 503, thereby promoting the flow of liquid in the U-shaped hose 503, so that the coolant can circulate in the temperature guide cover 5. In the process, it can carry away the heat of the generator 314, thereby improving the heat dissipation effect of the generator 314.

[0028] Example 2: As Figure 1-7 To improve the cooling rate of the coolant in the coolant tank 504, an agitation structure is arranged on the heat dissipation structure. The agitation structure includes a linkage shaft 513, which is rotatably mounted on the coolant tank 504. A driven bevel gear 514 is installed at one end of the linkage shaft 513, and the driven bevel gear 514 meshes with the linkage bevel gear 512. Multiple stirring rods 515 are installed on the linkage shaft 513, and the stirring rods 515 are located inside the coolant tank 504. During the rotation of the linkage bevel gear 512, it can drive the driven bevel gear 514 to rotate. The continuously rotating driven bevel gear 514 can drive the linkage shaft 513 to rotate, thereby causing the linkage shaft 513 to drive the stirring rods 515 to agitate the coolant in the coolant tank 504, so that heat can be transferred to the coolant tank 504 more quickly. The remaining features are the same as in Embodiment 1.

[0029] The working principle is as follows: The first motor 301 can be powered by the battery 3. Turning on the first motor 301 causes its output to drive the first transmission wheel 303 to rotate. The first transmission wheel 303, through its transmission engagement with the first transmission belt 305, drives the multi-stage transmission wheel 304 to rotate. The rotating multi-stage transmission wheel 304, through its transmission engagement with the second transmission belt 313, drives the second transmission wheel 315 to rotate. This causes the second transmission wheel 315 to drive the output shaft of the generator 314 to rotate, thus enabling the generator 314 to generate electricity. The generated electricity is transmitted to the voltage regulator 316, which adjusts the input voltage to maintain the output voltage within a set stable range. The output is then sent to the transformer 312, which converts the voltage to the required level. This voltage is then used to power the second motor 302 through the meter 309. At this point, the power supply from the battery 3 to the first motor 301 can be turned off. Under the power output from the generator 314, the second motor 302 can continue to operate for a period of time. In terms of power generation, the generator 314 can charge the battery 3 through the charger 308. The speed sensor 307 can be used to detect the speed of the multi-stage transmission wheel 304 on the second motor 302. When the power generated by the generator 314 is insufficient to supply the operation of the second motor 302, the speed of the multi-stage transmission wheel 304 will decrease. When the speed sensor 307 detects the decrease in the speed of the multi-stage transmission wheel 304, it will restart the battery 3 to supply power to the first motor 301, so that the first motor 301 can drive the second motor 302 to run again, increasing the speed of the multi-stage transmission wheel 304, and thus increasing the power generation of the generator 314 again. This process is repeated to increase the continuous operating time of the generator 314. By installing a voltmeter 311 and an ammeter 310 on both the generator 314 and the voltage regulator 316, the voltage and current of the generator 314 and the voltage regulator 316 can be monitored. A voltmeter 311 and a safety switch 306 are installed on the transformer 312 to monitor the voltage of the transformer 312 and prevent leakage.

[0030] The heat generated by the generator 314 during operation can be conducted to the heat-conducting fins 501 inside the heat-conducting cover 5, and then to the coolant inside the heat-conducting cover 5 through the heat-conducting fins 501. Simultaneously, the vibrations generated by the operation of components such as the first motor 301, the second motor 302, and the generator 314 act on the mounting plate 2, causing the mounting plate 2 to repeatedly press against the buffer damper 4 and the buffer spring 401 under the action of vibration, thereby achieving a shock absorption function. At the same time, during the vibration process, the mounting plate 2 will... The inner wall slides vertically back and forth. During this process, the mounting plate 2 drives the connecting seat 510 to move vertically back and forth. As the connecting seat 510 moves vertically, it drives one end of the connecting rod 511 to move and rotate. The other end of the connecting rod 511 rotates on one side of the linkage bevel gear 512 and drives the linkage bevel gear 512 to rotate. The rotating linkage bevel gear 512 can drive the connecting shaft 506 and the rotating frame 507 to rotate. The rotating frame 507 will then drive the extrusion wheel 508 to reciprocate and extrude the U-shaped hose 503. Pressure is applied to the U-shaped hose 503, causing the liquid to flow within it. The coolant in the coolant tank 504 flows back into the U-shaped hose 503, thus delivering the coolant. The coolant then enters the temperature-conducting shroud 5 through the corrugated delivery pipe 502, and returns to the coolant tank 504 through the return pipe 509. This circulation of coolant within the temperature-conducting shroud 5 effectively removes heat from the generator 314, improving its cooling performance. During rotation, the moving bevel gear 512 can drive the driven bevel gear 514 to rotate by meshing with it. The continuously rotating driven bevel gear 514 can drive the linkage shaft 513 to rotate, thereby causing the linkage shaft 513 to drive the stirring rod 515 to stir the coolant in the coolant tank 504, increasing the fluidity of the coolant, making the heat distribution of the coolant more uniform, and enabling the heat to be transferred to the coolant tank 504 more quickly, and then dissipating the heat to the external environment through the coolant tank 504.

[0031] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A high-efficiency energy recovery generator with voltage measurement function, comprising a support frame (1); characterized in that: A mounting plate (2) is slidably mounted on the support frame (1). A battery (3) is mounted on the mounting plate (2). A power generation structure is connected to the battery (3). The power generation structure is mounted on the mounting plate (2). Multiple buffer dampers (4) are mounted on the mounting plate (2). The buffer dampers (4) are mounted on the inner wall of the support frame (1). A shock absorption structure is mounted on the buffer dampers (4). A temperature conducting cover (5) is mounted on the mounting plate (2). A heat dissipation structure is connected to the temperature conducting cover (5). An agitation structure is mounted on the heat dissipation structure.

2. A high-efficiency energy recovery generator with voltage measurement function according to claim 1, characterized in that: The power generation structure includes a first motor (301) and a second motor (302). Both the first motor (301) and the second motor (302) are mounted on the top side of the mounting plate (2). The output end of the first motor (301) is equipped with a first transmission wheel (303), and the output end of the second motor (302) is equipped with a multi-stage transmission wheel (304). The first transmission wheel (303) and the multi-stage transmission wheel (304) are driven by the same first transmission belt (305). The multi-stage transmission wheel (304) is driven by a second transmission belt (313). A generator (314) is mounted on the top side of the mounting plate (2). The output end of the generator (314) is equipped with a second transmission wheel (315). The second transmission belt (313) is driven by the second transmission wheel (315). A voltage regulator (316) is electrically connected to the generator (314). A transformer (312) is electrically connected to the transformer (316). A voltmeter (311) is electrically connected to the generator (314), the voltage regulator (316), and the transformer (312). An ammeter (310) is electrically connected to the generator (314) and the voltage regulator (316). A meter (309) is electrically connected to the transformer (312). The meter (309) is electrically connected to the second motor (302). A charger (308) is electrically connected to the meter (309). The charger (308) is electrically connected to the battery (3). A speed sensor (307) is electrically connected to the second motor (302). The speed sensor (307) corresponds to the multi-stage transmission wheel (304). The speed sensor (307) is electrically connected to the battery (3). A safety switch (306) is electrically connected to the transformer (312).

3. A high-efficiency energy recovery generator with voltage measurement function according to claim 1, characterized in that: The shock absorption structure includes multiple buffer springs (401), one end of which is mounted on the inner wall of the support frame (1), and the other end of which is mounted on the bottom side of the mounting plate (2).

4. A high-efficiency energy recovery generator with voltage measurement function according to claim 1, characterized in that: The heat dissipation structure includes heat-conducting fins (501), which are installed on the inner wall of the heat-conducting cover (5). The heat-conducting fins (501) are in contact with the generator (314). One end of a corrugated conveying pipe (502) is installed on the heat-conducting cover (5). The other end of the corrugated conveying pipe (502) passes through the mounting plate (2) and is fitted with a U-shaped flexible hose (503). A coolant tank (504) is installed at one end of the U-shaped flexible hose (503). The coolant tank (504) is connected to the U-shaped flexible hose (503). The coolant tank (504) is mounted on the support frame (1). A connecting frame (505) is provided, and a U-shaped hose (503) is installed on the inner wall of the connecting frame (505). A connecting shaft (506) is rotatably installed on the connecting frame (505), and a rotating frame (507) is installed on the connecting shaft (506). Two extrusion rollers (508) are rotatably installed on the rotating frame (507). Both extrusion rollers (508) are in contact with the U-shaped hose (503). One end of a return pipe (509) is installed on the temperature guide cover (5), and the other end of the return pipe (509) is installed on the coolant tank (504). The return pipe (509) is connected to the coolant tank (504).

5. A high-efficiency energy recovery generator with voltage measurement function according to claim 1, characterized in that: A connecting seat (510) is installed on the bottom side of the mounting plate (2). One end of a connecting rod (511) is rotatably mounted on the connecting seat (510). A linkage bevel gear (512) is rotatably mounted on the other end of the connecting rod (511). The linkage bevel gear (512) is installed on one end of the connecting shaft (506).

6. A high-efficiency energy recovery generator with voltage measurement function according to claim 4, characterized in that: The corrugated conveying pipe (502) is connected to the U-shaped flexible hose (503), and the corrugated conveying pipe (502) is connected to the temperature-conducting cover (5).

7. A high-efficiency energy recovery generator with voltage measurement function according to claim 1, characterized in that: The agitation structure includes a linkage shaft (513), which is rotatably mounted on the coolant tank (504). A driven bevel gear (514) is mounted on one end of the linkage shaft (513), which meshes with the linkage bevel gear (512). Multiple agitators (515) are mounted on the linkage shaft (513), and the agitators (515) are located inside the coolant tank (504).

Images