Vertical matrix type hanging garden gravity energy storage system
By designing a vertical matrix aerial garden gravity energy storage system, combining the energy storage system and the aerial garden system, the problem of insufficient space utilization and greening in big cities is solved, efficient space utilization and beautification effects are achieved, and economic and social value is created.
Patent Information
- Application Number
- CN202411802744.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-09
- Publication Date
- 2025-04-29
AI Technical Summary
In a big city where every inch of land is valuable, how to organically combine energy storage systems with a sky garden system can not only effectively utilize space and height, but also increase the greening area, beautify the visual space, and create economic and social value.
A vertical matrix aerial garden gravity energy storage system is designed, including a multi-layer frame structure building, which is connected to the upper storage storage loading area, the air garden area and the lower storage loading area in turn. Gravity block lifting systems are set on both sides. Each floor of the aerial garden area is equipped with green planting areas, leisure areas and trails, and equipment areas and energy storage devices are installed on the top, and facilities such as central control room, main power system, irrigation system, water supply and drainage system are equipped.
It has achieved high degree of automation and high utilization, increased green area and leisure space, beautified the visual space, created economic and social value, and ensured the sense of security and experience of the aerial garden.
Smart Images

Figure CN119900334A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to a vertical matrix sky garden gravity energy storage system, belonging to the technical field of sky garden gravity energy storage. Background Art
[0002] In big cities where every inch of land is valuable, high-rise buildings are densely populated, parks and green spaces are scarce, and citizens have little space for leisure and entertainment.
[0003] How to organically combine energy storage systems with sky garden systems in big cities where every inch of land is valuable, so as to effectively utilize space and height while increasing green areas, beautifying visual space, and creating economic and social value, has become a problem to be solved in big cities. Summary of the invention
[0004] The purpose of the present invention is to provide a vertical matrix sky garden gravity energy storage system, which has a high degree of automation, effectively utilizes space and height, increases green area, beautifies visual space, and creates economic value and social value.
[0005] In order to solve the above technical problems, the present invention adopts the following technical solutions: a vertical matrix sky garden gravity energy storage system, including a building, characterized in that the building is a multi-layer frame structure, the building includes an upper warehouse loading area, a sky garden area and a lower warehouse loading area connected in sequence, gravity block lifting systems are arranged on both sides of the building, the gravity block lifting system runs through the upper warehouse loading area and the lower warehouse loading area in sequence, the sky garden area is provided with a through elevator mechanism, each floor of the sky garden area is provided with a green plant area, a leisure area and a trail, an equipment area is arranged on the top of the building, the gravity block lifting system is connected to an energy storage device, the energy storage device is placed in the equipment area, and a connected central control room and a main power supply system are also arranged in the equipment area, gravity blocks and RGV trolleys are arranged on the upper warehouse loading area and the lower warehouse loading area, the gravity blocks are placed on the RGV trolley, and the central control room is respectively connected to the gravity block lifting system, the elevator mechanism, the energy storage device, the main power supply system, and the RGV trolley.
[0006] The aforementioned vertical matrix sky garden gravity energy storage system, the sky garden area is also equipped with an irrigation system, a water supply and drainage system, an electrical lighting system, a sign and guidance system, a fire-fighting facility system, an automatic alarm system, a fire sprinkler system, an integrated management system, and an environmental monitoring system. The central control room is respectively connected to the irrigation system, the water supply and drainage system, the electrical lighting system, the sign and guidance system, the fire-fighting facility system, the automatic alarm system, the fire sprinkler system, the integrated management system, and the environmental monitoring system; the irrigation system, the water supply and drainage system, the electrical lighting system, the sign and guidance system, the fire-fighting facility system, the automatic alarm system, the fire sprinkler system, the integrated management system, and the environmental monitoring system effectively guarantee the leisure and entertainment experience and sense of security of the people in the sky garden.
[0007] The aforementioned vertical matrix sky garden gravity energy storage system, the gravity block lifting system includes a generator motor, a lifting drum, a steel rope and a car, the generator motor is connected to the lifting drum, one end of the steel rope is wound around the lifting drum, the other end of the steel rope is connected to the car, and the generator motor is connected to the central control room.
[0008] The aforementioned vertical matrix sky garden gravity energy storage system, the rotating shaft of the lifting drum is connected with a gear shaft, the gravity block lifting system also includes a cylindrical worm gear, the gear shaft is meshed with the cylindrical worm gear, one end of the cylindrical worm gear is connected with a high-speed flywheel, the other end of the cylindrical worm gear is connected with a drive motor, the high-speed flywheel and the drive motor are respectively connected to the central control room; the gear shaft is meshed with the cylindrical worm gear, so that the gear shaft and the cylindrical worm gear transmit to each other, and the excess electric energy can be stored in the high-speed flywheel. When the power is insufficient, the electric energy of the high-speed flywheel can drive the gear shaft to rotate, thereby driving the lifting drum to work, thereby realizing the effective conversion of the two energy storage methods.
[0009] The aforementioned vertical matrix sky garden gravity energy storage system has a lifting fixture on the top of the car, a micro-control device in the car, a central control room connected to the micro-control device, and the micro-control device connected to the lifting fixture.
[0010] In the aforementioned vertical matrix sky garden gravity energy storage system, a hydraulic door is provided at the bottom of the car, and the micro-control device is connected to the hydraulic door.
[0011] In the aforementioned vertical matrix sky garden gravity energy storage system, power supply rails are provided on the upper storage loading area and the lower storage loading area, the RGV trolley is slidably connected to the power supply rails, and the power supply rails are connected to the central control room.
[0012] In the aforementioned vertical matrix sky garden gravity energy storage system, a pulley mechanism is provided at a right angle on the top of the building, and the other end of the steel rope is connected to the car through the pulley mechanism.
[0013] The aforementioned vertical matrix sky garden gravity energy storage system has a building with at least thirty-six floors, an upper storage loading area with at least eight floors, and a lower storage loading area with at least eight floors.
[0014] Compared with the prior art, the present invention is beneficial in that:
[0015] 1. The present invention has a high degree of automation, which can effectively utilize space and height, increase greening area, beautify visual space, and create economic and social value;
[0016] 2. The irrigation system, water supply and drainage system, electrical lighting system, sign and guidance system, fire protection facility system, automatic alarm system, fire sprinkler system, integrated management system and environmental monitoring system of the present invention effectively ensure the leisure and entertainment experience and sense of security of the people in the sky garden;
[0017] 3. The gear shaft of the present invention meshes with the cylindrical worm, so that the gear shaft and the cylindrical worm can transmit each other, and the excess electric energy can be stored in the high-speed flywheel. When the electric power is insufficient, the electric energy of the high-speed flywheel can drive the gear shaft to rotate, thereby driving the lifting drum to work, realizing the effective conversion of the two energy storage modes;
[0018] 4. The present invention uses the hollow area to create a sky garden system, which does not increase the floor area and height, but increases the green space and leisure space by a total of 279,000 square meters, which is equivalent to the area of a large park;
[0019] 5. The present invention utilizes the empty space in the energy storage system to create a sky garden system without increasing the floor area and height. The green space and leisure space are increased by a total of 279,000 square meters. The commercial area including the leisure space is 6,240 square meters in total. Calculated at 1 yuan per day per square meter, the annual rental income of the commercial area is 2.28 million yuan. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] Figure 1 It is a schematic diagram of the structure of the present invention;
[0021] Figure 2 is a top view of the sky garden area of the present invention;
[0022] Figure 3 It is a schematic structural diagram of the gear shaft, cylindrical worm and high-speed flywheel of the present invention;
[0023] Figure 4 It is a structural schematic diagram of the lifting drum and the gear shaft of the present invention;
[0024] Figure 5 It is a structural schematic diagram of the car of the present invention;
[0025] Figure 6 It is a schematic diagram of the control relationship between the central control room of the present invention, the gravity block lifting system, the elevator mechanism, the elevator mechanism, the main power supply system, the RGV trolley, the irrigation system, the water supply and drainage system, the electrical lighting system, the sign and guidance system, the fire protection facility system, the automatic alarm system, the fire sprinkler system, the integrated management system, the environmental monitoring system, and the micro-control device.
[0026] Figure numerals: 1-building, 2-upper warehouse loading area, 3-sky garden area, 4-lower warehouse loading area, 5-gravity block lifting system, 6-elevator mechanism, 7-green plant area, 8-leisure area, 9-walkway, 10-equipment area, 11-energy storage device, 12-central control room, 13-main power supply system, 14-gravity block, 15-RGV trolley, 16-irrigation system, 17-water supply and drainage system, 18-electrical lighting system, 19-sign and guidance system, 20-fire protection facility system, 21-automatic alarm system, 22-fire sprinkler system, 23-integrated management system, 24-environmental monitoring system, 25-generator motor, 26-lifting drum, 27-steel rope, 28-car, 29-gear shaft, 30-cylindrical worm, 31-high-speed flywheel, 32-drive motor, 33-hoisting fixture, 34-micro-control device, 35-hydraulic door, 36-pulley mechanism.
[0027] The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments. DETAILED DESCRIPTION
[0028] Embodiment 1 of the present invention: A vertical matrix sky garden gravity energy storage system comprises a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 which are connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected through the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a penetrating elevator mechanism 6, and each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, An equipment area 10 is arranged on the top of the building 1, and the gravity block lifting system 5 is connected to the energy storage device 11, which is placed in the equipment area 10. A central control room 12 and a main power supply system 13 which are connected to each other are also arranged in the equipment area 10. Gravity blocks 14 and RGV trolleys 15 are arranged on the upper warehouse loading area 2 and the lower warehouse loading area 4, and the gravity block 14 is placed on the RGV trolley 15. The central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15.
[0029] Embodiment 2 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, an equipment area 10 is arranged on the top of the building 1, the gravity block lifting system 5 is connected to an energy storage device 11, the energy storage device 11 is placed in the equipment area 10, and the equipment area 10 is also provided with a central control room 12 and a main power supply system 13 connected to each other, the upper warehouse loading area 2 and the lower warehouse loading area 4 are connected to each other, and the upper warehouse loading area 2 and the lower warehouse loading area 4 are connected to each other. A gravity block 14 and an RGV trolley 15 are provided on the top, the gravity block 14 is placed on the RGV trolley 15, and the central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire protection facility system 20, an automatic alarm system 21, a fire sprinkler system 22, an integrated management system 23, and an environmental monitoring system 24, and the central control room 12 is respectively connected to the irrigation system 16, the water supply and drainage system 17, the electrical lighting system 18, the sign and guidance system 19, the fire protection facility system 20, the automatic alarm system 21, the fire sprinkler system 22, the integrated management system 23, and the environmental monitoring system 24.
[0030] Embodiment 3 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially passed through the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, and each floor of the sky garden area 3 is provided with a There are green plant area 7, leisure area 8 and trail 9. The top of the building 1 is provided with equipment area 10. The gravity block lifting system 5 is connected with energy storage device 11. The energy storage device 11 is placed in the equipment area 10. The equipment area 10 is also provided with a connected central control room 12 and a main power supply system 13. The upper storage loading area 2 and the lower storage loading area 4 are both provided with gravity blocks 14 and RGV trolleys 15. The gravity blocks 14 are placed on the RGV trolleys 15. The central control room 12 is connected to the gravity block lifting system 5 and the RGV trolleys 15. , elevator mechanism 6, energy storage device 11, main power supply system 13, RGV trolley 15 are connected; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire-fighting facility system 20, an automatic alarm system 21, a fire sprinkler system 22, an integrated management system 23, and an environmental monitoring system 24, and the central control room 12 is respectively connected with the irrigation system 16, the water supply and drainage system 17, the electrical lighting system 18, the sign and guidance system 19, the fire-fighting facility system 20, the automatic alarm system 21, the fire sprinkler system 22, the integrated management system 23, and the environmental monitoring system 24; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, and the other end of the steel rope 27 is connected to the car 28, and the generator motor 25 is connected to the central control room 12.
[0031] Embodiment 4 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, and the top of the building 1 is provided with an equipment area 10 The gravity block lifting system 5 is connected to an energy storage device 11, which is placed in the equipment area 10. The equipment area 10 is also provided with a connected central control room 12 and a main power supply system 13. The upper storage loading area 2 and the lower storage loading area 4 are both provided with gravity blocks 14 and RGV trolleys 15. The gravity block 14 is placed on the RGV trolley 15. The central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16 and a water supply and drainage system 17 , electrical lighting system 18, sign and guidance system 19, fire-fighting facility system 20, automatic alarm system 21, fire sprinkler system 22, integrated management system 23, environmental monitoring system 24, the central control room 12 is respectively connected with the irrigation system 16, water supply and drainage system 17, electrical lighting system 18, sign and guidance system 19, fire-fighting facility system 20, automatic alarm system 21, fire sprinkler system 22, integrated management system 23, environmental monitoring system 24; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, the other end of the steel rope 27 is connected to the car 28, and the generator motor 25 is connected to the central control room 12; the rotating shaft of the lifting drum 26 is connected to the gear shaft 29, the gravity block lifting system 5 also includes a cylindrical worm 30, the gear shaft 29 is meshed with the cylindrical worm 30, one end of the cylindrical worm 30 is connected to a high-speed flywheel 31, and the other end of the cylindrical worm 30 is connected to a drive motor 32, the high-speed flywheel 31 and the drive motor 32 are respectively connected to the central control room 12.
[0032] Embodiment 5 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, an equipment area 10 is arranged on the top of the building 1, and the gravity block lifting system 5 is connected to the energy storage device 1 1, the energy storage device 11 is placed in the equipment area 10, and the equipment area 10 is also provided with a connected central control room 12 and a main power supply system 13, and the upper storage loading area 2 and the lower storage loading area 4 are both provided with a gravity block 14 and an RGV trolley 15, and the gravity block 14 is placed on the RGV trolley 15, and the central control room 12 is respectively connected with the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire protection facility system 20, and an automatic alarm system The central control room 12 is connected to the irrigation system 16, the water supply and drainage system 17, the electrical lighting system 18, the sign and guidance system 19, the fire protection facility system 20, the automatic alarm system 21, the fire protection sprinkler system 22, the integrated management system 23, and the environmental monitoring system 24; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, and the other end of the steel rope 27 is connected to the car 28, the generator motor 25 is connected to the central control room 12; the rotating shaft of the lifting drum 26 is connected to the gear shaft 29, the gravity block lifting system 5 also includes a cylindrical worm 30, the gear shaft 29 is meshed with the cylindrical worm 30, one end of the cylindrical worm 30 is connected to a high-speed flywheel 31, and the other end of the cylindrical worm 30 is connected to a drive motor 32, the high-speed flywheel 31 and the drive motor 32 are respectively connected to the central control room 12; a lifting fixture 33 is arranged on the top of the car 28, a micro-control device 34 is arranged in the car 28, the central control room 12 is connected to the micro-control device 34, and the micro-control device 34 is connected to the lifting fixture 33.
[0033] Embodiment 6 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, an equipment area 10 is arranged on the top of the building 1, the gravity block lifting system 5 is connected to an energy storage device 11, and the energy storage device 11 It is placed in the equipment area 10, and a central control room 12 and a main power supply system 13 are also provided in the equipment area 10. Gravity blocks 14 and RGV trolleys 15 are provided in the upper storage loading area 2 and the lower storage loading area 4. The gravity block 14 is placed on the RGV trolley 15. The central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire protection facility system 20, an automatic alarm system 21, a fire sprinkler system 22, and a comprehensive management The central control room 12 is respectively connected with the irrigation system 16, the water supply and drainage system 17, the electrical lighting system 18, the sign and guidance system 19, the fire protection facility system 20, the automatic alarm system 21, the fire sprinkler system 22, the integrated management system 23, and the environmental monitoring system 24; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, and the other end of the steel rope 27 is connected to the car 28, and the generator motor 25 is connected to the central control room 12; the lifting The rotating shaft of the drum 26 is connected to a gear shaft 29, and the gravity block lifting system 5 also includes a cylindrical worm 30, the gear shaft 29 is meshed with the cylindrical worm 30, one end of the cylindrical worm 30 is connected to a high-speed flywheel 31, and the other end of the cylindrical worm 30 is connected to a drive motor 32, and the high-speed flywheel 31 and the drive motor 32 are respectively connected to the central control room 12; a lifting fixture 33 is arranged on the top of the car 28, a micro-control device 34 is arranged in the car 28, the central control room 12 is connected to the micro-control device 34, and the micro-control device 34 is connected to the lifting fixture 33; a hydraulic door 35 is arranged at the bottom of the car 28, and the micro-control device 34 is connected to the hydraulic door 35.
[0034] Embodiment 7 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, an equipment area 10 is arranged on the top of the building 1, the gravity block lifting system 5 is connected to an energy storage device 11, the energy storage device 11 is placed in the equipment area 10, and the equipment area 10 A central control room 12 and a main power supply system 13 are also provided in the sky garden area 3. Gravity blocks 14 and RGV trolleys 15 are provided in the upper storage loading area 2 and the lower storage loading area 4. The gravity blocks 14 are placed on the RGV trolleys 15. The central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire protection facility system 20, an automatic alarm system 21, a fire sprinkler system 22, a comprehensive management system 23, and an environmental monitoring system 24. The central control room 12 is respectively connected to the irrigation system 16, water supply and drainage system 17, electrical lighting system 18, sign and guidance system 19, fire protection facility system 20, automatic alarm system 21, fire sprinkler system 22, integrated management system 23, and environmental monitoring system 24 are connected; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, and the other end of the steel rope 27 is connected to the car 28, and the generator motor 25 is connected to the central control room 12; the rotating shaft of the lifting drum 26 is connected to the gear shaft 29, and the gravity block lifting system 5 also includes a cylindrical worm 30, the gear shaft 29 and the cylindrical worm The rod 30 is engaged, one end of the cylindrical worm 30 is connected to a high-speed flywheel 31, and the other end of the cylindrical worm 30 is connected to a drive motor 32. The high-speed flywheel 31 and the drive motor 32 are respectively connected to the central control room 12; a lifting fixture 33 is arranged on the top of the car 28, a micro-control device 34 is arranged in the car 28, the central control room 12 is connected to the micro-control device 34, and the micro-control device 34 is connected to the lifting fixture 33; a hydraulic door 35 is arranged at the bottom of the car 28, and the micro-control device 34 is connected to the hydraulic door 35; power supply rails are arranged on the upper warehouse loading area 2 and the lower warehouse loading area 4, the RGV trolley 15 is slidably connected to the power supply rails, and the power supply rails are connected to the central control room 12.
[0035] Embodiment 8 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, an equipment area 10 is arranged on the top of the building 1, the gravity block lifting system 5 is connected to an energy storage device 11, the energy storage device 11 is placed in the equipment area 10, and the equipment area 10 is also provided with a central The control room 12 and the main power supply system 13, the upper storage loading area 2 and the lower storage loading area 4 are both provided with gravity blocks 14 and RGV trolleys 15, the gravity blocks 14 are placed on the RGV trolleys 15, and the central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire protection facility system 20, an automatic alarm system 21, a fire sprinkler system 22, an integrated management system 23, and an environmental monitoring system 24, and the central control room 12 is respectively connected to the irrigation system 16, the water supply and drainage system 17, the electrical lighting system 18, the sign and guidance system 19, the fire protection facility system 20, the automatic alarm system 21, the fire sprinkler system 22, the integrated management system 23, and the environmental monitoring system 24. The guide system 19, the fire-fighting facility system 20, the automatic alarm system 21, the fire-fighting sprinkler system 22, the integrated management system 23, and the environmental monitoring system 24 are connected; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, and the other end of the steel rope 27 is connected to the car 28, and the generator motor 25 is connected to the central control room 12; the rotating shaft of the lifting drum 26 is connected to a gear shaft 29, and the gravity block lifting system 5 also includes a cylindrical worm 30, the gear shaft 29 is meshed with the cylindrical worm 30, one end of the cylindrical worm 30 is connected to a high-speed flywheel 31, and the other end of the cylindrical worm 30 is connected to the high-speed flywheel 31. A driving motor 32 is connected to one end, and the high-speed flywheel 31 and the driving motor 32 are respectively connected to the central control room 12; a lifting fixture 33 is arranged on the top of the car 28, a micro-control device 34 is arranged in the car 28, the central control room 12 is connected to the micro-control device 34, and the micro-control device 34 is connected to the lifting fixture 33; a hydraulic door 35 is arranged at the bottom of the car 28, and the micro-control device 34 is connected to the hydraulic door 35; power supply rails are arranged on the upper warehouse loading area 2 and the lower warehouse loading area 4, the RGV trolley 15 is slidably connected to the power supply rails, and the power supply rails are connected to the central control room 12; a pulley mechanism 36 is arranged at a right angle on the top of the building 1, and the other end of the steel rope 27 is connected to the car 28 through the pulley mechanism 36.
[0036] Embodiment 9 of the present invention: A vertical matrix sky garden gravity energy storage system, comprising a building 1, characterized in that the building 1 is a multi-layer frame structure, the building 1 comprises an upper warehouse loading area 2, a sky garden area 3 and a lower warehouse loading area 4 connected in sequence, a gravity block lifting system 5 is arranged on both sides of the building 1, the gravity block lifting system 5 is sequentially connected to the upper warehouse loading area 2 and the lower warehouse loading area 4, the sky garden area 3 is provided with a through elevator mechanism 6, each floor of the sky garden area 3 is provided with a green plant area 7, a leisure area 8 and a trail 9, an equipment area 10 is arranged on the top of the building 1, the gravity block lifting system 5 is connected to an energy storage device 11, the energy storage device 11 is placed in the equipment area 10, and the equipment area 10 is also provided with a connected central control room 12 and a main power supply system 13, the upper storage loading area 2 and the lower storage loading area 4 are both provided with a gravity block 14 and an RGV trolley 15, the gravity block 14 is placed on the RGV trolley 15, and the central control room 12 is respectively connected to the gravity block lifting system 5, the elevator mechanism 6, the energy storage device 11, the main power supply system 13, and the RGV trolley 15; the sky garden area 3 is also provided with an irrigation system 16, a water supply and drainage system 17, an electrical lighting system 18, a sign and guidance system 19, a fire-fighting facility system 20, an automatic alarm system 21, a fire-fighting sprinkler system 22, an integrated management system 23, and an environmental monitoring system 24, and the central control room 12 is respectively connected to the irrigation system 16, the water supply and drainage system 17, the electrical lighting system 18, the sign and guidance system 19, the fire-fighting facility system 20, the automatic alarm system 21, fire sprinkler system 22, integrated management system 23, environmental monitoring system 24 are connected; the gravity block lifting system 5 includes a generator motor 25, a lifting drum 26, a steel rope 27 and a car 28, the generator motor 25 is connected to the lifting drum 26, one end of the steel rope 27 is wound around the lifting drum 26, the other end of the steel rope 27 is connected to the car 28, and the generator motor 25 is connected to the central control room 12; the rotating shaft of the lifting drum 26 is connected to a gear shaft 29, the gravity block lifting system 5 also includes a cylindrical worm 30, the gear shaft 29 is meshed with the cylindrical worm 30, one end of the cylindrical worm 30 is connected to a high-speed flywheel 31, and the other end of the cylindrical worm 30 is connected to a drive motor 32, the high-speed flywheel 31 and the drive motor 32 are respectively connected to the central control room 12. room 12 is connected; a lifting fixture 33 is arranged on the top of the car 28, a micro-control device 34 is arranged in the car 28, the central control room 12 is connected to the micro-control device 34, and the micro-control device 34 is connected to the lifting fixture 33; a hydraulic door 35 is arranged on the bottom of the car 28, and the micro-control device 34 is connected to the hydraulic door 35; power supply rails are arranged on the upper warehouse loading area 2 and the lower warehouse loading area 4, the RGV trolley 15 is slidably connected to the power supply rails, and the power supply rails are connected to the central control room 12; a pulley mechanism 36 is arranged at a right angle to the top of the building body 1, and the other end of the steel rope 27 is connected to the car 28 through the pulley mechanism 36; the building body 1 is provided with at least thirty-six floors, the upper warehouse loading area 2 is provided with at least eight floors, and the lower warehouse loading area 4 is provided with at least eight floors.
[0037] The working principle of an embodiment of the present invention:
[0038] When the present invention works:
[0039] When storing energy, the high-speed flywheel 31 releases energy, the gravity block lifting system 5 starts the lifting operation, the driving motor 32 drives the cylindrical worm 30 to rotate, thereby driving the gear shaft 29 to rotate, and the rotation of the gear shaft 29 drives the lifting drum 26 to rotate. At this time, the RGV trolley 15 carrying the gravity block 14 in the lower warehouse loading area 4 moves along the power supply track. When the RGV trolley 15 moves to the car 28, the hydraulic door 35 extends, the RGV trolley 15 travels into the car 28, the lifting fixture 33 clamps the gravity block 14, the RGV trolley 15 leaves the car 28, the hydraulic door 35 retracts, and the lifting fixture 33 clamps the gravity block 14. The block 14 is placed in the car 28, and the lifting drum 26 rotates to lift the car 28. When it is lifted to the upper storage loading area 2, the RGV trolley 15 of the upper storage loading area 2 moves to the car 28, the lifting fixture 33 clamps the gravity block 14, the hydraulic door 35 extends, and the RGV trolley 15 travels to the car 28. The lifting fixture 33 places the gravity block 14 in the RGV trolley 15, the RGV trolley 15 carries the gravity block 14 and leaves the car 28, the hydraulic door 35 retracts, and the RGV trolley 15 of the upper storage loading area 2 carries the gravity block 14 and moves along the power supply track of the upper storage loading area 2 to complete energy storage;
[0040] When releasing energy, the RGV trolley 15 in the upper storage loading area 2 carries the gravity block 14 and moves along the power supply track of the upper storage loading area 2. When the RGV trolley 15 moves to the car 28, the hydraulic door 35 extends, the RGV trolley 15 drives into the car 28, the lifting fixture 33 clamps the gravity block 14, the RGV trolley 15 leaves the car 28, the hydraulic door 35 retracts, and the lifting fixture 33 places the gravity block 14 in the car 28. Under the action of gravity, the car 28 descends and drives the lifting drum 26 to rotate, thereby driving the gear shaft 29 to rotate, and then driving the cylindrical worm 30 to rotate, storing the electrical energy in the high-speed flywheel 31. When there is excess energy, the storage limit of the high-speed flywheel 31 is reached, and the excess electric energy is stored in the energy storage device 11. The car 28 descends to the lower warehouse loading area 4, the RGV trolley 15 of the lower warehouse loading area 4 moves to the car 28, the lifting fixture 33 clamps the gravity block 14, the hydraulic door 35 extends, the RGV trolley 15 travels into the car 28, the lifting fixture 33 places the gravity block 14 in the RGV trolley 15, the RGV trolley 15 carries the gravity block 14 out of the car 28, the hydraulic door 35 retracts, and the RGV trolley 15 of the lower warehouse loading area 4 carries the gravity block 14 and moves along the power supply track of the lower warehouse loading area 4 to complete the energy release.
Claims
1. A vertical matrix sky garden gravity energy storage system, comprising a building (1), characterized in that: The building (1) is a multi-layer frame structure. The building (1) includes an upper warehouse loading area (2), a sky garden area (3) and a lower warehouse loading area (4) which are connected in sequence. Gravity block lifting systems (5) are arranged on both sides of the building (1). The gravity block lifting systems (5) are sequentially connected to the upper warehouse loading area (2) and the lower warehouse loading area (4). The sky garden area (3) is provided with an elevator mechanism (6) which passes through. Each floor of the sky garden area (3) is provided with a green plant area (7), a leisure area (8) and a walkway (9). The top of the building (1) is provided with an equipment area (10). The system (5) is connected to an energy storage device (11), the energy storage device (11) is placed in the equipment area (10), and a central control room (12) and a main power supply system (13) connected thereto are also arranged in the equipment area (10), a gravity block (14) and an RGV trolley (15) are arranged on the upper warehouse loading area (2) and the lower warehouse loading area (4), the gravity block (14) is placed on the RGV trolley (15), and the central control room (12) is respectively connected to the gravity block lifting system (5), the elevator mechanism (6), the energy storage device (11), the main power supply system (13), and the RGV trolley (15).
2. A vertical matrix sky garden gravity energy storage system according to claim 1, characterized in that: The sky garden area (3) is also provided with an irrigation system (16), a water supply and drainage system (17), an electrical lighting system (18), a sign and guidance system (19), a fire-fighting facility system (20), an automatic alarm system (21), a fire-fighting sprinkler system (22), an integrated management system (23), and an environmental monitoring system (24). The central control room (12) is respectively connected to the irrigation system (16), the water supply and drainage system (17), the electrical lighting system (18), the sign and guidance system (19), the fire-fighting facility system (20), the automatic alarm system (21), the fire-fighting sprinkler system (22), the integrated management system (23), and the environmental monitoring system (24).
3. The vertical matrix sky garden gravity energy storage system according to claim 1 is characterized in that: The gravity block lifting system (5) comprises a generator motor (25), a lifting drum (26), a steel rope (27) and a car (28), wherein the generator motor (25) is connected to the lifting drum (26), one end of the steel rope (27) is wound around the lifting drum (26), the other end of the steel rope (27) is connected to the car (28), and the generator motor (25) is connected to the central control room (12).
4. A vertical matrix sky garden gravity energy storage system according to claim 3, characterized in that: The rotating shaft of the lifting drum (26) is connected to a gear shaft (29), and the gravity block lifting system (5) also includes a cylindrical worm (30), the gear shaft (29) is meshed with the cylindrical worm (30), one end of the cylindrical worm (30) is connected to a high-speed flywheel (31), and the other end of the cylindrical worm (30) is connected to a drive motor (32), and the high-speed flywheel (31) and the drive motor (32) are respectively connected to the central control room (12).
5. The vertical matrix sky garden gravity energy storage system according to claim 3 is characterized in that: A lifting fixture (33) is arranged at the top of the car (28), a micro-control device (34) is arranged in the car (28), the central control room (12) is connected to the micro-control device (34), and the micro-control device (34) is connected to the lifting fixture (33).
6. A vertical matrix sky garden gravity energy storage system according to claim 5, characterized in that: A hydraulic door (35) is provided at the bottom of the car (28), and the micro-control device (34) is connected to the hydraulic door (35).
7. The vertical matrix sky garden gravity energy storage system according to claim 1 is characterized in that: The upper warehouse loading area (2) and the lower warehouse loading area (4) are both provided with power supply rails, the RGV trolley (15) is slidably connected to the power supply rails, and the power supply rails are connected to the central control room (12).
8. The vertical matrix sky garden gravity energy storage system according to claim 3 is characterized in that: A pulley mechanism (36) is provided at a right angle on the top of the building body (1), and the other end of the steel rope (27) is connected to the car (28) through the pulley mechanism (36).
9. The vertical matrix sky garden gravity energy storage system according to claim 1 is characterized in that: The building (1) is provided with at least thirty-six floors, the upper storage loading area (2) is provided with at least eight floors, and the lower storage loading area (4) is provided with at least eight floors.
Citation Information
Cited By
Gravity energy storage system suitable for matrix type computing center
CN121474078A