TWI761208B - Bidirectional potential energy generating equipment and its power output device - Google Patents

Abstract

A bidirectional potential energy power generation device includes two generator sets, a support structure, a power output mechanism, a gravity supply mechanism and an electric control mechanism. The sling drives the pulley to rotate, and the two ends of the sling are connected to two bearing members. When the bearing member at one end of the sling is at the designated high position, the bearing member at the other end is at the designated low position. The high-level bearing member goes down after receiving the weight material, and the sling drives the pulley to rotate, so that the clutch of the first generator set is in an engaged state and drives the generator to generate electricity. When the carrier descends to the specified low level to discharge the material, the carrier on the other end of the sling goes up to the specified high level and then descends after receiving the material. The sling drives the pulley to rotate in the opposite direction, so that the clutch of the second generator set is engaged and drives the generator to generate electricity. The repeated up and down of the two bearing members causes the two generator sets to generate electricity alternately to achieve the function of bidirectional power generation.

Description

Bidirectional potential energy generating equipment and its power output device

The present invention relates to a bidirectional potential energy generating device, in particular to a bidirectional potential energy generating device and its power output device which can convert gravitational potential energy into rotational kinetic energy to provide generator power.

At present, the power generation methods of power generation equipment include nuclear power generation, thermal power generation, solar power generation, hydropower generation and wind power generation. However, nuclear power generation and thermal power generation are prone to environmental problems. Solar power generation, hydropower generation and wind power generation equipment must be installed in a specific geographical environment, and solar power and wind power generation are faced with natural weather factors such as sunshine, cloudy weather, wind direction or wind speed, and cannot continue to provide power to the power generation equipment and cause it to generate electricity. Inefficient.

Therefore, one of the objectives of the present invention is to provide a bidirectional potential energy generating device that can overcome at least one of the disadvantages of the prior art.

Therefore, the bidirectional potential energy generating device of the present invention includes a first generator set, a second generator set, and a power output device.

The power output device includes a support structure, a power output mechanism, a gravity supply mechanism, and an electronic control mechanism. The support structure supports the first generator set and the second generator set. The power output mechanism is disposed on the support structure and connected between the first generator set and the second generator set and includes a rotating assembly, the rotating assembly can rotate along a first rotation direction and a direction opposite to the first generator set. The second rotation direction of the rotation direction rotates, and the power output mechanism is configured to output power to the first generator set to drive it to generate electricity when the rotation assembly rotates along the first rotation direction, and when the rotation assembly rotates along the second rotation direction When the rotation direction rotates, output power to the second generator set to drive it to generate electricity. The gravity supply mechanism is disposed on the support structure and includes a sling for driving the rotation assembly to rotate, a first carrier connected to one end of the sling, and a second carrier connected to the other end of the sling , and a supply assembly for supplying a substance with a weight, the first carrier and the second carrier can each receive a first height position of the substance supplied by the supply assembly, and a space between The bottom of the first height position is used to move up and down between second height positions for discharging the carried material. The electronic control mechanism can selectively control the supply assembly to supply the substance to the first carrier or the second carrier.

In some embodiments, the first generator set includes a first generator, a first transmission assembly connected to the first generator, and a first transmission assembly connected to the rotating assembly and the first transmission assembly The first clutch between the second generator set includes a second generator, a second transmission assembly connected to the second generator, and a second transmission assembly connected to the second generator. A second clutch between the rotating assembly and the second transmission assembly, the first clutch is arranged to be in an engaged state when the rotating assembly rotates in the first rotational direction so that the power can pass through the first clutch and The first transmission assembly is output to the first generator, and when the rotating assembly rotates in the second rotational direction, it is in a disengaged state so that the power cannot be output to the first transmission assembly through the first clutch and the first transmission assembly. The first generator and the second clutch are arranged to be in an engaged state when the rotating assembly rotates in the second rotational direction so that the power can be output to the second through the second clutch and the second transmission assembly The generator is in a disengaged state when the rotating assembly rotates along the first rotation direction, so that the power cannot be output to the second generator through the second clutch and the second transmission assembly.

In some embodiments, the rotating assembly includes a rotating shaft, and a set of pulleys fixed on the rotating shaft for winding the sling, the first clutch and the second clutch are oppositely disposed along the rotating shaft and each includes a set of pulleys A ratchet fixed to the rotating shaft, and an engaging unit for engaging with the ratchet, the engaging unit of the first clutch and the engaging unit of the second clutch are respectively arranged on the first transmission assembly and the second transmission assembly.

In some embodiments, the power output mechanism further includes a brake assembly that can be controlled by the electronic control mechanism to brake the pulley.

In some embodiments, the substance supplied by the supply assembly is liquid, the first carrier and the second carrier each include a carrier box and a gate, and the carrier box is formed with a hole for injecting the substance. entrance, and a A discharge port for discharging the substance, the gate can be pivoted in the carrying box to control the opening and closing of the discharge port, the support structure includes a first top post and a second top post, the first top post is used for To push the shutter of the first carrier located at the second height position upward to make it rotate and open the discharge port, the second push post is used to push upward the first carrier located at the second height position The shutter of the two carriers is rotated to open the discharge port.

In some embodiments, the substance supplied by the supply assembly is liquid, the first carrier and the second carrier each form an inlet for injecting the substance, and the supply assembly includes an inlet for storing the substance a supply tank, a first supply pipe connected to one side of the supply tank for injecting the substance into the inlet of the first carrier, and a first supply pipe connected to the other side of the supply tank for the second carrier The inlet is injected into the second supply pipe of the substance, the electronic control mechanism includes a controller, a first valve disposed in the first supply pipe, and a second valve disposed in the second supply pipe, the control The device is electrically connected to the first valve and the second valve for controlling the opening and closing of the first valve and the second valve.

In some embodiments, the power take-off mechanism further includes a brake assembly for braking the rotating assembly, and the electronic control mechanism further includes a first liquid level sensor electrically connected to the controller , and a second liquid level height sensor electrically connected to the controller, the first liquid level height sensor is used for sensing through the inlet of the first carrier at the first height position The liquid level of the substance in the first carrier, the second liquid level sensor is used for sensing the liquid level in the second carrier through the inlet of the second carrier located at the first height position The liquid level height of the substance, when the control When the controller controls the opening of the first valve to inject the substance into the first bearing member or controls the opening of the second valve to inject the substance into the second bearing member, the controller controls the braking assembly to the rotating total. forming a brake, when the substance injected into the first carrier or the second carrier reaches a preset value, the controller controls the first valve or the second valve to close and controls the brake assembly to rotate The assembly is released.

In some embodiments, the first generator set includes a first generator, a first transmission assembly connected to the first generator, and a first transmission assembly connected to the rotating assembly and the first transmission assembly A first clutch between the second generator set includes a second generator, a second transmission assembly connected to the second generator, and a connection between the rotating assembly and the second transmission assembly the second clutch, the controller is also electrically connected to the first clutch and the second clutch for controlling the first clutch and the second clutch to change between an engaged state and a disengaged state, when the first clutch and the second clutch are respectively When the substance injected by the first carrier reaches the preset value, the controller controls the first clutch to switch to the engaged state and controls the second clutch to switch to the disengaged state. When the substance reaches the preset value, the controller controls the first clutch to change to the disengaged state and controls the second clutch to change to the engaged state.

In some embodiments, the supply assembly further includes an accumulation tank disposed at the bottom end of the support structure for accumulating the substance discharged from the first carrier or the second carrier, a pump, a pump connected to A first recovery pipe between the accumulating tank and the pump, and a second recovery pipe communicating between the pump and the supply tank, the pump can be controlled by the electronic controller Through the control of the mechanism, the substance in the accumulation tank is extracted through the first recovery pipe and returned to the supply tank through the second recovery pipe.

In some embodiments, the support structure includes two spaced apart vertical guide rails, a top plate disposed on the top of the vertical guide rails, and two guide wheels pivotally connected to the top plate and adjacent to the top of the vertical guide rails, respectively, The first carrier and the second carrier are respectively slidably connected to the vertical guide rails. The first generator set, the second generator set, the power output mechanism, the supply assembly and the electronic control mechanism are arranged on The top plate and the guide wheels are used for winding the sling.

Therefore, another object of the present invention is to provide a power output device for a bidirectional potential energy generating device that can overcome at least one disadvantage of the prior art.

Therefore, the power output device of the bidirectional potential energy generating equipment of the present invention includes a support structure, a power output mechanism, a gravity supply mechanism, and an electric control mechanism.

The power output mechanism is disposed on the support structure and includes a rotation assembly, the rotation assembly can rotate along a first rotation direction and a second rotation direction opposite to the first rotation direction, and the power output mechanism is configured to be The rotating assembly outputs power when rotating along the first rotating direction or the second rotating direction. The gravity supply mechanism is disposed on the support structure and includes a sling for driving the rotation assembly to rotate, a first carrier connected to one end of the sling, and a second carrier connected to the other end of the sling , and a supply assembly for supplying a substance with a weight, the first carrier and the second carrier can each receive a first height position of the substance supplied by the supply assembly and a space below the first height position to move up and down between a second height position for discharging the carried material. The electronic control mechanism can selectively control the supply assembly to supply the substance to the first carrier or the second carrier.

The present invention has at least the following effects: the power output device can continuously provide the power to the first generator set and the second generator set to make the first generator and the second generator operate and generate electricity, thereby making the The power generation equipment can generate power continuously and stably to improve power generation efficiency. In addition, because the material supplied by the supply assembly can be selected from liquid, sand, gravel or metal particles, etc., and the supply assembly can repeatedly use the material to drive the first carrier and the first carrier by its weight. The second carrier moves to generate gravitational potential energy. Therefore, compared with the existing nuclear power generation and thermal power generation, there is no environmental protection problem of waste and waste gas discharge. Furthermore, the power generation equipment does not need to be installed in a specific geographical environment, which can improve the scope of application and the flexibility of use.

100: Bidirectional potential energy power generation equipment

1: The first generator set

11: The first generator

12: The first transmission assembly

121: The first gearbox

122: The first drive shaft

123: The first output shaft

13: First clutch

131, 231: Ratchet

132, 232: meshing unit

133, 233: Shell

134, 234: Pawl

135, 235: Shrapnel

2: The second generator set

21: Second generator

22: Second transmission assembly

221: Second gearbox

222: Second drive shaft

223: Second output shaft

23: Second clutch

3: PTO

4: Bracket structure

41: Vertical rail

411: Guide groove

42: Top Plate

421: Board body

422: Main bracket

423: Side bracket

43: Guide wheel

44: The first top column

441, 451: Cross column section

442, 452: Top pillar section

45: Second top post

5: Power take-off mechanism

51: Rotary assembly

511: Spindle

512: Pulley

513: Groove

52: Brake assembly

521: Brake pads

522: Actuating Unit

6: Gravity Supply Mechanism

61: Sling

62: The first carrier

620, 640: carrying box

621, 641: Roller

622, 642: Gate

623, 643: Entrance

624, 644: discharge port

625, 645: Door panels

626, 646: Waterproof gasket

627, 647: Shaft

628, 648: Connection part

629, 649: Transmission unit

630, 650: Transmission rod

631, 651: Fixed pulley

632, 652: connecting rope

633, 653: Pivoting rod segment

634, 654: Outer rod segment

635, 655: Inner rod section

636, 656: end part

637, 657: Joint

64: Second carrier

66: Supply assembly

661: Supply Box

662: First Supply Tube

663: Second Supply Tube

664: Accumulation Box

665: Pump

666: First recovery pipe

667: Second recovery pipe

668: Storage space

7: Electronic control mechanism

71: Controller

72: The first valve

73: Second valve

74: The first liquid level height sensor

75: Second liquid level height sensor

8: Substance

R1: The first rotation direction

R2: Second rotation direction

D1: first horizontal

D2: Second horizontal

D3: Portrait

Other features and effects of the present invention will be clearly presented in the embodiments with reference to the drawings, wherein: A configuration relationship between a second generator set and a power output device; Fig. 2 is a side view of Fig. 1; Fig. 3 is an incomplete side view of the first embodiment; Fig. 4 is a cross-sectional view taken along line IV-IV in Fig. 3; Fig. 5 is a cross-sectional view taken along line V-V in Fig. 3; Fig. 6 is an incomplete top view of the first embodiment, illustrating two brake pads of a brake assembly in a released state; FIG. 7 is an incomplete top view of the first embodiment, illustrating the brake assembly. Wait for the brake pads to be in a braking state; FIG. 8 is an incomplete cross-sectional view of the first embodiment, illustrating a first carrier at a first height position, and a second carrier at a second height position; FIG. 9 is an incomplete cross-sectional view of the first embodiment, illustrating that the first carrier is at the second height position, and the second carrier is at the first height position; FIG. 10 is the second embodiment of the bidirectional potential energy generating device of the present invention An incomplete cross-sectional view of the second embodiment; FIG. 11 is an incomplete cross-sectional view of the second embodiment, illustrating the first carrier at the first height position and the second carrier at the second height position; Fig. 12 is an incomplete cross-sectional view of the second embodiment, illustrating that the first carrier is at the first height position, and the second carrier is at the second height position; and FIG. 13 is a bidirectional potential energy generating device of the present invention. An incomplete side view of the third embodiment of the .

Before the present invention is described in detail, it should be noted that in the following description, similar elements are designated by the same reference numerals.

Referring to FIG. 1 , a first embodiment of the bidirectional potential energy generating apparatus 100 of the present invention is suitable for being installed in a required occasion to provide the electric power required for the operation of the related electronic device. For example, the two-way potential energy power generation device 100 can be installed at a specific height, on an indoor or outdoor elevated platform, between high-rise buildings in a residential community, or under an elevated land bridge, and the generated electricity can be directly supplied to factories, residential communities, public facilities, traffic lighting. The generated electricity can also meet the demand for electricity in neighboring areas, and it can be connected in parallel with the existing electricity supply system to expand the scope of electricity supply.

Referring to FIGS. 1 and 2 , the bidirectional potential energy generating device 100 includes a first generator set 1 , a second generator set 2 , and a power output device 3 . For the convenience of subsequent description, a first lateral direction D1, a second lateral direction D2 perpendicular to the first lateral direction D1, and a second lateral direction D2 perpendicular to the first lateral direction D1 and the second lateral direction D2 are defined for the bidirectional potential energy generating device 100 vertical D3. Wherein, the first lateral direction D1 is taken as an example of a front-rear direction, the second lateral direction D2 is taken as an example of a left-right direction, and the vertical direction D3 is an up-down direction.

Referring to FIG. 1 and FIG. 3 , the first generator set 1 and the second generator set 2 have the same structure and can be driven to generate electricity for being electrically connected to related electronic devices that require electricity. The first generator set 1 includes a first generator 11 , a first transmission assembly 12 connected to the first generator 11 , and a first transmission assembly 12 connected to the first transmission assembly 12 of the first clutch 13. The first transmission assembly 12 includes a first gearbox 121 , a first transmission shaft 122 connected to one side of the first gearbox 121 , and a first transmission shaft 122 connected to the other side of the first gearbox 121 and the first gearbox 121 . The first output shaft 123 between the generators 11 . The second generator set 2 and the first generator set 1 are disposed in opposite directions along the first transverse direction D1 . The second generator set 2 includes a second generator 21 and a second transmission connected to the second generator 21 . assembly 22 , and a second clutch 23 connected to the second transmission assembly 22 . The second transmission assembly 22 includes a second gearbox 221 , a second transmission shaft 222 connected to one side of the second gearbox 221 , and a second transmission shaft 222 connected to the other side of the second gearbox 221 and the second gearbox 221 . The second output shaft 223 between the generators 21 . In the first embodiment, the first clutch 13 and the second clutch 23 are external gear ratchet pawl clutches as an example, and the first gearbox 121 and the second gearbox 221 are an accelerator as an example.

3 , 4 and 5 , the first clutch 13 and the second clutch 23 have the same structure. The first clutch 13 and the second clutch 23 respectively include a ratchet 131 , 231 , and a The meshing units 132 and 232 of the ratchets 131 and 231 . The engaging unit 132 of the first clutch 13 and the engaging unit 232 of the second clutch 23 are respectively disposed at the end of the first transmission shaft 122 of the first transmission assembly 12 and the second transmission assembly 22 Two drive shafts 222 end. The engaging units 132, 232 include a casing 133, 233, a plurality of pawls 134, 234 pivotally pivoted in the casing 133, 233, and a plurality of elastic pieces 135, 235 disposed in the casing 133, 233 . The casing 133 and the casing 233 are respectively fixed on the first transmission shaft 122 end and the end of the second transmission shaft 222 . The ratchet pawls 134 and 234 are used to engage with the ratchet wheels 131 and 231 respectively. The elastic pieces 135 , 235 apply elastic force to the ratchets 131 , 231 , respectively, to the ratchets 131 , 231 , so that the ratchets 131 , 231 are engaged with the ratchets 131 , 231 , respectively. Thereby, the first clutch 13 and the second clutch 23 can be kept in an engaged state (as shown in FIG. 4 and FIG. 5 ).

Referring to FIGS. 1 and 2 , the power output device 3 includes a support structure 4 , a power output mechanism 5 , a gravity supply mechanism 6 , and an electronic control mechanism 7 . The support structure 4 includes two vertical guide rails 41 disposed oppositely along the second transverse direction D2 and spaced apart from left and right, a top plate 42 disposed at the top of the vertical guide rails 41 , two pivotally connected to the top plate 42 and adjacent to the top plate 42 respectively. The guide wheel 43 at the top of the isostatic guide rail 41 , a first top post 44 , and a second top post 45 . Each of the vertical guide rails 41 extends along the longitudinal direction D3 and forms a guide groove 411 which is opened outward. The top plate 42 includes a plate body 421 disposed on the top of the vertical guide rails 41 for supporting the first generator set 1 and the second generator set 2 , a main support 422 disposed on the top surface of the plate body 421 , and two There are two side brackets 423 respectively disposed on the left and right sides of the plate body 421 . The first generator set 1 and the second generator set 2 are oppositely disposed on the top surface of the plate body 421 along the first transverse direction D1 and are respectively located on the front and rear sides of the main bracket 422 . Each of the side brackets 423 is used to support the corresponding guide wheel 43 for pivotal connection. The first top post 44 and the second top post 45 have the same structure and are oppositely disposed on the vertical guide rails 41 along the second lateral direction D2. The first top post 44 and the second top post 45 each have a The horizontal column sections 441 and 451 connected to the corresponding vertical guide rail 41 and protruding out of its outer side and adjacent to its bottom end, and a Connect to the top column sections 442 and 452 whose ends are T-shaped. The transverse column segments 441, 451 extend along the second transverse direction D2.

Referring to FIGS. 1 , 3 , 4 and 5 , the power output mechanism 5 is disposed on the support structure 4 and is connected between the first generator set 1 and the second generator set 2 . The power output mechanism 5 includes a rotating assembly 51 pivotally connected to the main bracket 422 , and a braking assembly 52 . The rotating assembly 51 includes a rotating shaft 511 pivotally connected to the main frame 422 , and a set of pulleys 512 fixed to the rotating shaft 511 . The axial direction of the rotating shaft 511 extends along the first lateral direction D1. The ratchet wheels 131 , 231 are sleeved on the rotating shaft 511 and are respectively adjacent to two ends of the rotating shaft 511 , so that the ratchet wheels 131 , 231 can be driven by the rotating shaft 511 to rotate. The outer peripheral surface of the pulley 512 is recessed radially inward to form a groove 513 . The rotating assembly 51 can rotate along a first rotating direction R1 (as shown in FIG. 9 ) and a second rotating direction R2 (as shown in FIG. 8 ) opposite to the first rotating direction R1 .

In the first embodiment, the first clutch 13 is set to be in the engaged state when the rotating assembly 51 rotates along the first rotation direction R1, so that the power generated when the rotating assembly 51 rotates can pass through the rotating assembly 51. The first clutch 13 and the first transmission assembly 12 are output to the first generator 11 to drive it to operate and generate electricity. The first clutch 13 is also configured to be in a disengaged state in which the ratchet wheel 131 can rotate relative to the pawls 134 when the rotating assembly 51 rotates along the second rotation direction R2, so that the rotating assembly 51 rotates in a disengaged state. The generated power cannot be output to the first generator 11 through the first clutch 13 and the first transmission assembly 12 . The second clutch 23 is arranged so that when the total rotation When the rotary assembly 51 rotates along the second rotation direction R2, it is in the engaged state, so that the power generated when the rotary assembly 51 rotates can be output to the second engine through the second clutch 23 and the second transmission assembly 22 The motor 21 is driven to generate electricity. The second clutch 23 is also configured to be in a disengaged state in which the ratchet wheel 231 can rotate relative to the pawls 234 when the rotating assembly 51 rotates along the first rotation direction R1, so that the rotating assembly 51 rotates in a disengaged state. The generated power cannot be output to the second generator 21 through the second clutch 23 and the second transmission assembly 22 .

Referring to FIGS. 3 , 6 and 7 , the brake assembly 52 includes two brake pads 521 movably sleeved on the rotating shaft 511 and located on opposite sides of the pulley 512 , and a brake pad 521 connected to one end of the brake pads 521 . Actuating unit 522 . The actuating unit 522 can be operated to actuate the brake pads 521 to switch between a release state (as shown in FIG. 6 ) and a brake state (as shown in FIG. 7 ). When the brake pads 521 are in the release state, the brake pads 521 are spaced apart from the opposite sides of the pulley 512 by a distance, so that the pulley 512 can rotate. When the brake pads 521 are in the braking state, the brake pads 521 tightly contact the opposite sides of the pulley 512 and generate frictional force therewith to prevent the pulley 512 from rotating.

Referring to FIG. 1 , FIG. 2 and FIG. 8 , the gravity supply mechanism 6 is disposed on the support structure 4 and includes a sling 61 for driving the rotation assembly 51 to rotate, and a first bearing connected to one end of the sling 61 62, a second carrier 64 connected to the other end of the sling 61, and a supply assembly 66 for supplying the substance 8 with weight. The Sling 61 Housed in the groove 513 of the pulley 512 and wound around the pulley 512 and the guide wheels 43 , the opposite ends of the sling 61 are located outside the vertical guide rails 41 respectively. The first carrier 62 and the second carrier 64 are oppositely disposed on the vertical guide rails 41 along the second lateral direction D2 , and are respectively slidably connected to the guide grooves 411 of the vertical guide rails 41 . Each of the first carrier 62 and the second carrier 64 can receive a first height position of the substance 8 supplied by the supply assembly 66, and a space is located below the first height position for carrying the material 8 supplied by the supply assembly 66. The material 8 is displaced up and down between the second height positions. Wherein, when the first carrier 62 is positioned at one of the first height position and the second height position, the second carrier 64 is positioned at the other of the first height position and the second height position a location. In the first embodiment, the difference between the first height position and the second height position is, for example, 5 meters.

In this first embodiment, the substance 8 is a liquid such as water as an example. The first carrier 62 and the second carrier 64 respectively include a carrier box 620 , 640 , a roller 621 , 641 , and a gate 622 , 642 . The carrying boxes 620 , 640 are formed with inlets 623 , 643 for injecting the substance 8 , and discharge ports 624 , 644 below the inlets 623 , 643 for discharging the substance 8 . The rollers 621 , 641 are pivotally connected to the carrying boxes 620 , 640 and slidably connected to the corresponding guide grooves 411 of the vertical guide rail 41 , so that the first carrier 62 and the second The bearing members 64 can smoothly slide on the vertical guide rails 41 respectively. The shutters 622 , 642 are pivotally pivoted in the carrying boxes 620 , 640 to control the opening and closing of the discharge ports 624 , 644 . the gate The doors 622, 642 have a door panel 625, 645, and a waterproof gasket 626, 646 disposed on the bottom surface of the door panel 625, 645. The door panels 625 , 645 have shaft portions 627 , 647 pivotally connected to the carrying boxes 620 , 640 . The waterproof gaskets 626 , 646 are made of elastic materials such as rubber or silicone, and are used to abut against the inner surfaces of the carrying boxes 620 , 640 and surround the outer periphery of the discharge ports 624 , 644 . Thereby, the substance 8 in the carrying boxes 620 and 640 is prevented from seeping out through the discharge ports 624 and 644 .

When the first carrier 62 moves down to the second height position, the top pillar section 442 of the first top pillar 44 will push the shutter 622 of the first carrier 62 upward to rotate and open the The discharge port 624 enables the substance 8 in the first carrier 62 to be discharged downward through the discharge port 624 . When the second carrier 64 moves down to the second height position, the top pillar section 452 of the second top pillar 45 pushes the shutter 642 of the second carrier 64 upward to rotate and open The discharge port 644 enables the substance 8 in the second carrier 64 to be discharged downward through the discharge port 644 .

The supply assembly 66 includes a supply box 661 disposed on the top surface of the plate body 421 of the top plate 42 and adjacent to the front end of the plate body 421 and storing the substance 8 , a supply box 661 connected to one side of the supply box 661 and extending to the A first supply pipe 662 above the first carrier 62 , a second supply pipe 663 connected to the other side of the supply box 661 and extending above the second carrier 64 , a The accumulation tank 664, a pump 665 located in front of the accumulation tank 664, a first recovery pipe 666 connected between the accumulation tank 664 and the pump 665, and a pump 665 connected between the supply tank 661 The second recovery pipe 667 . The first supply pipe 662 is used to inject the substance 8 into the inlet 623 of the first carrier 62 . The second supply pipe 663 is used to inject the substance 8 into the inlet 643 of the second carrier 64 . The accumulation box 664 forms an accumulation space 668 with an upward opening for accumulating the substance 8 discharged from the first carrier 62 and the second carrier 64 . When the pump 665 is running, the pump 665 extracts the substance 8 in the accumulation space 668 of the accumulation tank 664 through the first recovery pipe 666 and returns to the supply tank 661 through the second recovery pipe 667, so that the supply The tank 661 can continuously supply the substance 8 to the first supply pipe 662 or the second supply pipe 663 . In this way, the supply box 661 only needs to store a predetermined volume of the substance 8, which can be recycled and used repeatedly through the aforementioned supply and recovery methods.

The electronic control mechanism 7 includes a controller 71 disposed on the top surface of the plate body 421 of the top plate 42 , a first valve 72 disposed in the first supply pipe 662 for controlling the flow or blocking thereof, and a A second valve 73 for controlling the flow or blocking of the second supply pipe 663, a first liquid level sensor 74 disposed on one side of the plate body 421 and above the first carrier 62, and a second liquid level sensor 75 disposed on the other side of the plate body 421 and located above the second carrier 64 . The controller 71 is electrically connected to the actuating unit 522 of the brake assembly 52 for controlling the actuating unit 522 to actuate the brake pads 521 to switch between the releasing state and the braking state. The controller 71 is also electrically connected to the pump 665 for controlling the opening and closing of the pump 665 . The controller 71 is also electrically connected to the first valve 72 and the second valve 73 for controlling the first valve 72 and the second valve 73 The opening and closing of the second valve 73 enables the electronic control mechanism 7 to selectively control the supply assembly 66 to supply the substance 8 to the first carrier 62 or the second carrier 64 . The controller 71 is also electrically connected to the first liquid level sensor 74 and the second liquid level sensor 75 . The first liquid level sensor 74 is used to sense the liquid level of the substance 8 in the carrying box 620 through the inlet 623 of the first carrier 62 located at the first height position. The second liquid level sensor 75 is used for sensing the liquid level of the substance 8 in the carrying box 640 through the inlet 643 of the second carrier 64 located at the first height position.

The operation of the bidirectional potential energy generating device 100 will be described in detail below: Referring to FIG. 1 , FIG. 2 , FIG. 7 and FIG. 8 , when the first bearing member 62 is located at the first height position, the second bearing member 64-bit is in that second height position. At this time, the first liquid level sensor 74 penetrates into the carrying box 620 through the inlet 623 of the first carrying member 62 . The controller 71 controls the actuating unit 522 to actuate the brake pads 521 to change from the brake release state to the brake state, so as to prevent the rotation assembly 51 from rotating. Next, the controller 71 controls the first valve 72 to open, and the first valve 72 controls the first supply pipe 662 to be in a flow state, so that the first supply pipe 662 is injected into the inlet 623 of the first carrier 62 . The substance 8 flows into the carrier box 620 . The second valve 73 remains closed.

When the first liquid level sensor 74 senses the When the liquid level of the substance 8 reaches a preset value, the first liquid level sensor 74 generates a sensing signal. When the controller 71 receives the sensing signal, it controls the first valve 72 to close, so that the first supply pipe 662 stops injecting the substance 8 , and at the same time, the controller 71 controls the actuating unit 522 to actuate the brakes The plate 521 changes from the braking state to the braking release state.

Referring to FIG. 1 , FIG. 6 , FIG. 8 and FIG. 9 , since the first carrier 62 carries the substance 8 with a predetermined weight, and the second carrier 64 does not carry the substance 8 , the first carrier 62 The total weight of the loaded substance 8 will be greater than the weight of the second carrier 64 . At this time, the first carrier 62 moves down by gravity and pulls one end of the sling 61 so that the sling 61 drives the rotating assembly 51 to rotate along the first rotation direction R1, and the other end of the sling 61 rotates The second carrier 64 is pulled up.

When the first carrier 62 moves down to the position where the door panel 625 of the shutter 622 contacts the top post section 442 of the first top post 44 , the door panel 625 will be affected by the top post section of the first top post 44 442 blocks. When the first carrier 62 continues to move downward, the top column section 442 of the first top column 44 will push the door plate 625 of the shutter 622 upward to rotate and open the discharge port 624 .

When the first carrier 62 moves down to the second height position shown in FIG. 9 , the controller 71 controls the actuating unit 522 to actuate the brake pads 521 to change from the release state to the brake state, The top column section 442 of the first top column 44 penetrates into the carrying box 620 through the discharge port 624 and supports the gate 622 to keep it in a position as shown in FIG. 9 . the open state shown. The substance 8 carried in the carrying box 620 will flow down through the discharge port 624 into the accumulating space 668 of the accumulating box 664 , so that the carrying box 620 can discharge the substance 8 . At the same time, the second carrier 64 moves up to the first height position shown in FIG. 9 , and the second liquid level sensor 75 penetrates into the carrier box through the inlet 643 of the second carrier 64 within 640.

The sling 61 is pulled by the gravitational potential energy generated during the downward movement of the first carrier 62 and the material 8 carried from the first height position to the second height position to drive the rotation. The assembly 51 rotates so that the rotating assembly 51 can convert the aforementioned gravitational potential energy into rotational kinetic energy. In this way, the power generated by the rotation of the rotating assembly 51 can be output to the first generator 11 through the first clutch 13 and the first transmission assembly 12 , so that the first generator 11 operates to generate electricity.

Referring to FIG. 1 and FIG. 9 , after that, the controller 71 controls the second valve 73 to open, and the second valve 73 controls the second supply pipe 663 to be in a flow state, so that the second supply pipe 663 is connected to the second carrier The inlet 643 of 64 injects the substance 8 into the carrying box 640 . When the second liquid level sensor 75 senses that the liquid level of the substance 8 in the carrying box 640 reaches the preset value, the second liquid level sensor 75 generates a sensing signal. When the controller 71 receives the sensing signal, it controls the second valve 73 to close, so that the second supply pipe 663 stops injecting the substance 8 , and at the same time, the controller 71 controls the actuating unit 522 to actuate the brakes The plate 521 changes from the braking state to the braking release state. On the other hand, the controller 71 will start the pump 665 to run so that the pump 665 The substance 8 accumulated in the accumulation space 668 of the accumulation tank 664 is extracted through the first recovery pipe 666 and returned to the supply tank 661 through the second recovery pipe 667 .

Referring to FIG. 1 , FIG. 6 , FIG. 8 and FIG. 9 , since the second carrier 64 carries the substance 8 with a predetermined weight, and the first carrier 62 does not carry the substance 8 , the second carrier 64 The total weight of the loaded substance 8 will be greater than the weight of the first carrier 62 . At this time, the second carrier 64 moves down by gravity and pulls the other end of the sling 61 so that the sling 61 drives the rotating assembly 51 to rotate along the second rotation direction R2, and one end of the sling 61 will The first carrier 62 is pulled up.

When the second carrier 64 moves down to the position where the door panel 645 of the shutter 642 contacts the top post section 452 of the second top post 45 , the door panel 645 will be affected by the top post section of the second top post 45 452 blocks. When the second carrier 64 continues to move downward, the top column section 452 of the second top column 45 will push the door plate 645 of the shutter 642 upward to rotate and open the discharge port 644 .

When the second carrier 64 moves down to the second height position shown in FIG. 8 , the controller 71 controls the actuating unit 522 to actuate the brake pads 521 to change from the release state to the brake state, The top column section 452 of the second top column 45 penetrates into the carrying box 640 through the discharge port 644 and supports the shutter 642 to keep it in an open state as shown in FIG. 8 . The substance 8 carried in the carrying box 640 will flow down through the discharge port 644 into the storage space 668 of the storage tank 664 , so that the carrying box 640 can discharge the substance 8 . At the same time, the first carrier 62 moves up to the position shown in FIG. 8 . At the first height position, the first liquid level sensor 74 penetrates into the carrying box 620 through the inlet 623 of the first carrying member 62 .

The gravitational potential energy generated during the downward movement of the second carrier 64 and the material 8 carried from the first height position to the second height position pulls the sling 61 to drive the rotation The assembly 51 rotates so that the rotating assembly 51 can convert the aforementioned gravitational potential energy into rotational kinetic energy. In this way, the power generated by the rotation of the rotating assembly 51 can be output to the second generator 21 through the second clutch 23 and the second transmission assembly 22 , so that the second generator 21 operates to generate electricity.

By repeating the above operations, the power output device 3 can continuously provide the power to the first generator set 1 and the second generator set 2 to make the first generator 11 and the second generator 21 operate to generate electricity, Thereby, the power generating apparatus 100 can generate power continuously and stably to improve power generation efficiency.

It should be noted that, in another implementation aspect of the first embodiment, the substance 8 supplied by the supply assembly 66 can also be a solid with weight, so as to be suitable for desert areas, water-deficient areas, and remote areas. implement. The substance 8 can be, for example, a solid such as sand, gravel or metal particles. At this time, the first carrier 62 and the second carrier 64 can be formed into a plate-like structure to carry the substance 8 , and the supply assembly 66 can transport the substance 8 to the first carrier through, for example, a conveyor belt structure 62 or the second carrier 64, and recover the substance 8 discharged from the first carrier 62 or the second carrier 64 for reuse.

Referring to FIGS. 10 and 11 , the overall structure of the second embodiment of the bidirectional potential energy generating device 100 of the present invention is substantially the same as that of the first embodiment, except for the structures of the first carrier 62 and the second carrier 64 . .

In the second embodiment, the transverse column section 441 of the first top column 44 and the transverse column section 451 of the second top column 45 are respectively protruded from the front ends of the vertical guide rails 41 and extend along the first transverse direction D1 . The shutters 622 and 642 also have a connecting portion 628 and 648 opposite to the shaft portion 627 and 647 . The connecting portions 628 and 648 are protruding columns on one side of the door plates 625 and 645 as an example. Each of the first carrier 62 and the second carrier 64 further includes a transmission unit 629 , 649 connected between the carrier boxes 620 , 640 and the shutters 622 , 642 . The transmission units 629 and 649 include a transmission rod 630 and 650 , certain pulleys 631 and 651 , and a connecting rope 632 and 652 . The transmission rods 630 , 650 have a pivot rod segment 633 , 653 pivotally connected to the side plates of the carrying boxes 620 , 640 ; The rod segments 634 , 654 , and an inner rod segment 635 , 655 connected to the other ends of the pivoting rod segments 633 , 653 and located in the carrying boxes 620 , 640 . The outer rod segments 634 , 654 have end portions 636 , 656 for pushing the top post segment 442 of the first top post 44 or the top post segment 452 of the second top post 45 . The inner rod segments 635, 655 have a joint portion 637, 657 spaced from the pivot rod sections 633, 653, and the joint portion 637, 657 is a convex column as an example. The fixed pulleys 631 and 651 are pivotally connected to the inner sides of the top plates of the carrying boxes 620 and 640 rotatably. The connecting ropes 632, 652 are wound around the fixed pulleys 631, 651 and the two ends are respectively connected Connected to the connecting parts 628 , 648 and the connecting parts 637 , 657 .

Referring to FIG. 10 and FIG. 11 , when the first carrier 62 and the second carrier 64 are at the first height position, the transmission rods 630 and 650 are in a horizontal state.

When the first bearing member 62 moves down from the first height position to the second height position, the top post section 442 of the first top post 44 pushes the end portion 636 of the outer rod section 634 upward, so that the The pivoting rod segment 633 of the transmission rod 630 rotates relative to the carrying box 620 along the first rotation direction R1. During the rotation of the transmission rod 630, one end of the connecting rope 632 is pulled down through the inner rod section 635, so that the other end of the connecting rope 632 pulls up the connecting portion 628 to drive the shaft portion 627 of the gate 622 to rotate along the second Turn in direction R2. Thereby, the shutter 622 opens the discharge port 624 .

When the second bearing member 64 moves down from the first height position to the second height position, the top post section 452 of the second top post 45 pushes the end portion 656 of the outer rod section 654 upward, so that the The pivoting rod segment 653 of the transmission rod 650 rotates relative to the carrying box 640 along the second rotation direction R2. During the rotation of the transmission rod 650, one end of the connecting rope 652 is pulled down through the inner rod section 655, so that the other end of the connecting rope 652 pulls up the connecting portion 648 to drive the shaft portion 647 of the gate 642 to rotate along the first Turn in direction R1. Thereby, the shutter 642 opens the discharge port 644 .

Referring to FIG. 13 , the overall structure of the third embodiment of the bidirectional potential energy generating device 100 of the present invention is substantially the same as that of the first embodiment, and the difference lies in the structures of the first clutch 13 and the second clutch 23 .

In the third embodiment, the first clutch 13 and the second clutch 23 are electronically controlled clutches as an example. The controller 71 of the electronic control mechanism 7 (as shown in FIG. 1 ) is electrically connected to the first clutch 13 and the second clutch 23 for controlling the first clutch 13 and the second clutch 23 to operate in the Switching between the engaged state and the disengaged state. When the liquid level of the substance 8 injected into the first carrier 62 reaches the preset value, the controller 71 controls the first clutch 13 to switch to the engaged state and controls the second clutch 23 to switch to the disengaged state . When the liquid level of the substance 8 injected into the second carrier 64 reaches the preset value, the controller 71 controls the first clutch 13 to switch to the disengaged state and controls the second clutch 23 to switch to the engaged state .

To sum up, the bidirectional potential energy generating apparatus 100 of each embodiment can continuously provide the power to the first generator set 1 and the second generator set 2 through the power output device 3 to enable the first generator 11 and the second generator 21 operate to generate power, thereby enabling the power generation facility 100 to generate power continuously and stably to improve power generation efficiency. In addition, since the substance 8 supplied by the supply assembly 66 can be selected from liquid, sand, gravel or metal particles, etc., and the supply assembly 66 can repeatedly use the substance 8 to use its weight to drive the first The carrier 62 and the second carrier 64 move to generate gravitational potential energy. Therefore, compared with the existing nuclear power generation and thermal power generation, there is no environmental protection problem of waste and waste gas discharge. Furthermore, the power generation equipment 100 does not need to be installed in a specific geographical environment, which can improve the scope of application and the flexibility of use, and thus can indeed achieve the purpose of the present invention.

However, the above are only examples of the present invention, and should not limit the scope of the present invention. All simple equivalent changes and modifications made according to the scope of the application for patent of the present invention and the contents of the patent specification are still within the scope of the present invention. within the scope of the invention patent.

100: Bidirectional potential energy power generation equipment

1: The first generator set

11: The first generator

12: The first transmission assembly

13: First clutch

2: The second generator set

21: Second generator

22: Second transmission assembly

23: Second clutch

3: PTO

4: Bracket structure

41: Vertical rail

411: Guide groove

42: Top Plate

421: Board body

422: Main bracket

423: Side bracket

43: Guide wheel

44: The first top column

441: Transverse column section

442: Top Column Section

45: Second top post

5: Power take-off mechanism

52: Brake assembly

521: Brake pads

522: Actuating Unit

6: Gravity Supply Mechanism

61: Sling

62: The first carrier

620: Carrier box

623: Entrance

64: Second carrier

66: Supply assembly

661: Supply Box

662: First Supply Tube

663: Second Supply Tube

664: Accumulation Box

665: Pump

666: First recovery pipe

667: Second recovery pipe

668: Storage space

7: Electronic control mechanism

71: Controller

72: The first valve

73: Second valve

74: The first liquid level height sensor

75: Second liquid level height sensor

D1: first horizontal

D2: Second horizontal

D3: Portrait

Claims (17)

A bidirectional potential energy power generation device, comprising: a first generator set; a second generator set; a power output device, including: a support structure, supporting the first generator set and the second generator set; a power output mechanism, It is arranged on the support structure and connected between the first generator set and the second generator set and includes a rotating assembly, the rotating assembly can be along a first rotating direction and a second opposite to the first rotating direction. Rotating in two rotation directions, the power output mechanism is configured to output power to the first generator set to drive it to generate electricity when the rotary assembly rotates in the first rotation direction, and when the rotary assembly rotates in the second rotation direction outputting power to the second generator set to drive it to generate electricity; a gravity supply mechanism disposed on the support structure and comprising a sling for driving the rotation assembly to rotate, and a first bearing member connected to one end of the sling , a second carrier connected to the other end of the sling, and a supply assembly for supplying a material with a weight, the first and second carriers can each receive the supply assembly A first height position of the supplied material and a second height position below the first height position for moving up and down between a second height position for discharging the carried material; and an electronic control mechanism capable of selectively controlling The supply assembly supplies The substance to the first carrier or the second carrier. The bidirectional potential energy generating device of claim 1, wherein the first generator set comprises a first generator, a first transmission assembly connected to the first generator, and a first transmission assembly connected to the rotating assembly The first clutch between the first transmission assembly and the second generator set includes a second generator, a second transmission assembly connected to the second generator, and a second transmission assembly connected to the rotating assembly and the A second clutch between the second transmission assembly, the first clutch is arranged to be in an engaged state when the rotating assembly rotates in the first rotation direction, so that the power can pass through the first clutch and the first transmission The assembly is output to the first generator, and when the rotating assembly rotates in the second rotation direction, it is in a disengaged state so that the power cannot be output to the first generator through the first clutch and the first transmission assembly a motor, the second clutch is configured to be in an engaged state when the rotating assembly rotates in the second rotational direction so that the power can be output to the second generator through the second clutch and the second transmission assembly, and When the rotating assembly rotates along the first rotating direction, it is in a disengaged state so that the power cannot be output to the second generator through the second clutch and the second transmission assembly. The bidirectional potential energy power generation device as claimed in claim 2, wherein the rotating assembly includes a rotating shaft and a set of pulleys fixed on the rotating shaft for winding the sling, the first clutch and the second clutch are along the rotating shaft Reversely arranged and each includes a set of ratchets fixed on the rotating shaft, and a meshing unit for engaging with the ratchet, the meshing unit of the first clutch and the meshing unit of the second clutch are respectively arranged on the first clutch Transmission assembly and the Second transmission assembly. The bidirectional potential energy generating device according to claim 3, wherein the power output mechanism further comprises a brake assembly which can be controlled by the electronic control mechanism to brake the pulley. The bidirectional potential energy power generation device according to any one of claims 1 to 4, wherein the substance supplied by the supply assembly is liquid, and the first carrier and the second carrier each include a carrier box, And a gate, the carrier box is formed with an inlet for the substance to be injected into, and a discharge port located below the inlet for discharging the substance, the gate can be pivoted in the carrier box to control the opening of the discharge port closed, the support structure includes a first top post and a second top post, the first top post is used to push up the gate of the first carrier located at the second height position to make it rotate and open For the discharge port, the second top post is used to push up the shutter of the second carrier located at the second height position to rotate and open the discharge port. The bidirectional potential energy power generation device according to claim 1, wherein the substance supplied by the supply assembly is liquid, the first carrier and the second carrier respectively form an inlet for injecting the substance, and the supply The assembly includes a supply tank for storing the substance, a first supply pipe connected to one side of the supply tank for injecting the substance into the inlet of the first carrier, and a first supply pipe connected to the other side of the supply tank A second supply pipe for injecting the substance into the inlet of the second carrier, the electronic control mechanism includes a controller, a first valve disposed in the first supply pipe, and a second supply pipe the second valve of the pipe, the controller is electrically connected to the first valve and the The second valve is used to control the opening and closing of the first valve and the second valve. The bidirectional potential energy generating device according to claim 6, wherein the power output mechanism further comprises a braking assembly for braking the rotating assembly, and the electronic control mechanism further comprises a a first liquid level height sensor, and a second liquid level height sensor electrically connected to the controller, the first liquid level height sensor is used for passing the first liquid level height sensor located at the first height position The inlet of the carrier is used to sense the liquid level of the substance in the first carrier, and the second liquid level sensor is used to sense the inlet of the second carrier located at the first height position. Measure the liquid level of the substance in the second carrier, when the controller controls the first valve to open to inject the substance into the first carrier or controls the second valve to open to inject the second carrier When the substance is present, the controller controls the brake assembly to brake the rotating assembly, and when the substance injected into the first carrier or the second carrier reaches a preset value, the controller controls the first carrier The valve or the second valve closes and controls the braking assembly to release the braking to the rotating assembly. The bidirectional potential energy generating device of claim 7, wherein the first generator set comprises a first generator, a first transmission assembly connected to the first generator, and a first transmission assembly connected to the rotating assembly The first clutch between the first transmission assembly and the second generator set includes a second generator, a second transmission assembly connected to the second generator, and a second transmission assembly connected to the rotating assembly and the A second clutch between the second transmission assembly, the controller is also electrically connected to the first clutch and the second clutch for controlling the first clutch and the second clutch to be in an engaged state. When the substance injected into the first carrier reaches the preset value, the controller controls the first clutch to change to the engaged state and controls the second clutch to change to the disengaged state state, when the substance injected into the second carrier reaches the preset value, the controller controls the first clutch to change to the disengaged state and controls the second clutch to change to the engaged state. The bidirectional potential energy power generation device as claimed in claim 6, wherein the supply assembly further comprises an accumulation disposed at the bottom end of the support structure for accumulating the substance discharged from the first carrier or the second carrier tank, a pump, a first recovery pipe connected between the accumulation tank and the pump, and a second recovery pipe connected between the pump and the supply tank, the pump can be controlled by the electronic control mechanism to The substance in the accumulation tank is extracted through the first recovery pipe and returned to the supply tank through the second recovery pipe. The bidirectional potential energy power generation device according to any one of claims 1 to 4, wherein the support structure comprises two spaced apart vertical guide rails, a top plate disposed on the top of the vertical guide rails, and two vertical guide rails pivotally connected to The top plate is respectively adjacent to the guide wheels at the top of the vertical guide rails, the first bearing member and the second bearing member are respectively slidably connected to the vertical guide rails, the first generator set, the second generator set, the power The output mechanism, the supply assembly and the electric control mechanism are arranged on the top plate, and the guide wheels are used for winding the sling. A power output device for bidirectional potential energy generating equipment, comprising: a support structure; a power output mechanism, arranged on the support structure and including a rotating assembly, the rotating assembly can rotate the first A second rotation direction of a rotation direction rotates, the power output mechanism is configured to output power when the rotation assembly rotates along the first rotation direction or the second rotation direction; a gravity supply mechanism is arranged on the support structure and includes A sling for driving the rotating assembly to rotate, a first bearing member connected to one end of the sling, a second bearing member connected to the other end of the sling, and a sling for supplying a substance with weight Supply assembly, each of the first carrier and the second carrier can receive a first height position of the substance supplied by the supply assembly, and a space is located below the first height position for carrying the material supplied by the supply assembly. It moves up and down between the second height positions where the substance is discharged; and an electronic control mechanism can selectively control the supply assembly to supply the substance to the first carrier or the second carrier. The power output device of a bidirectional potential energy generating device as claimed in claim 11, wherein the rotating assembly includes a rotating shaft and a set of pulleys fixed on the rotating shaft for winding the sling, and the power output mechanism further includes an energy A brake assembly that is controlled by the electronic control mechanism to brake the pulley. The power output device for a bidirectional potential energy power generation device according to any one of claims 11 to 12, wherein the substance supplied by the supply assembly is liquid, and the first carrier and the second carrier respectively comprise a carrying box, and a gate, the carrying box has an inlet for injecting the substance, and a discharge port located below the inlet for discharging the substance, the gate can be pivoted in the carrying box for controlling The discharge port is opened and closed, the support structure includes a first top post and a second top post, the first top post The top post is used to push up the gate of the first carrier located at the second height position to make it rotate and open the discharge port, and the second top post is used to push up the gate located at the second height position The shutter of the second carrier to rotate and open the discharge port. The power output device for a bidirectional potential energy power generation device as claimed in claim 11, wherein the substance supplied by the supply assembly is liquid, and the first carrier and the second carrier are each formed with a hole for injecting the substance an inlet, the supply assembly includes a supply tank storing the substance, a first supply pipe connected to one side of the supply tank for injecting the substance into the inlet of the first carrier, and a supply pipe connected to the supply The other side of the box is used for injecting the substance into the second supply pipe of the second carrier. The electronic control mechanism includes a controller, a first valve disposed on the first supply pipe, and a For the second valve of the second supply pipe, the controller is electrically connected to the first valve and the second valve for controlling the opening and closing of the first valve and the second valve. The power output device of a bidirectional potential energy generating device as claimed in claim 14, wherein the power output mechanism further comprises a braking assembly for braking the rotating assembly, and the electronic control mechanism further includes a braking assembly electrically connected to The first liquid level sensor of the controller, and a second liquid level sensor electrically connected to the controller, the first liquid level sensor is used to pass through the position at the first height position The inlet of the first carrier is used to sense the liquid level of the substance in the first carrier, and the second liquid level sensor is used to pass the second carrier located at the first height position. The inlet is used to sense the liquid level of the substance in the second carrier, when When the controller controls the opening of the first valve to inject the substance into the first carrier or controls the opening of the second valve to inject the substance into the second carrier, the controller controls the rotation of the brake assembly Assembly braking, when the substance injected into the first carrier or the second carrier reaches a preset value, the controller controls the first valve or the second valve to close and controls the brake assembly to the The rotating assembly is released. The power output device of the bidirectional potential energy generating equipment according to claim 14, wherein the supply assembly further comprises a bottom end of the support structure for accumulating the discharge of the first carrier or the second carrier. The substance accumulation tank, a pump, a first recovery pipe connected between the accumulation tank and the pump, and a second recovery pipe connected between the pump and the supply tank, the pump can be The control mechanism controls to extract the substance in the accumulation tank through the first recovery pipe and return to the supply tank through the second recovery pipe. The power output device for a bidirectional potential energy power generation device as claimed in any one of claims 11 to 12, wherein the support structure comprises two spaced apart vertical guide rails, a top plate disposed at the top of the vertical guide rails, and two a guide wheel pivotally connected to the top plate and adjacent to the top ends of the vertical guide rails, the first bearing member and the second bearing member are respectively slidably connected to the vertical guide rails, the power output mechanism, the supply assembly and the The electric control mechanism is arranged on the top plate, and the guide wheels are used for winding the sling.

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