Buoyant Ball Torque Generator for Remote Power
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Solution Overview
Problem
Existing power generation systems that rely on environmental conditions such as sunlight, wind, or water flow are unreliable due to their dependence on continuous and predictable sources, making it challenging to provide consistent high output torque in remote areas without a localized power grid.
Innovation Solution
A power-generating wheel system utilizing a liquid-filled riser tube with buoyant balls that generate torque by floating up and rotating a top wheel, connected to a bottom wheel through a drive chain, allowing for continuous torque generation and transfer to external devices, with a liquid supply and return system to maintain operation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If solar or wind electric generating devices are used to provide power in remote areas, then electricity can be generated without a power grid, but the power output is unreliable due to dependence on unpredictable environmental conditions
Solution Approach 1:
The system employs periodic action through the cyclic movement of buoyant balls that rise and fall in a liquid column, creating continuous periodic torque on the drive wheel. This periodic mechanical action converts to electrical energy through the generator, providing reliable power output independent of environmental conditions like sunlight or wind availability.
Solution Approach 2:
The system utilizes self-service through the automatic circulation of buoyant balls and liquid within the closed system. The balls naturally rise due to buoyancy and fall due to gravity, continuously driving the wheel without external intervention. The liquid circulates automatically, maintaining the system's operation without requiring external power or environmental inputs.
2Reliability
If mini hydro-electric plants are used to generate electricity in remote areas, then localized power can be provided, but the system reliability depends on the continuity, volume and velocity of water flow
Solution Approach 1:
The system applies hydraulics by using a liquid column in which buoyant balls move. The liquid provides the medium for buoyant force, enabling the balls to rise and fall in a controlled manner. This hydraulic principle creates consistent mechanical motion that drives the generator, replacing the need for external water flow sources required by traditional mini hydro-electric plants.
Solution Approach 2:
The system employs parameter changes by utilizing the change in position and potential energy of buoyant balls as they move up and down in the liquid column. This positional parameter change converts to mechanical rotation and then to electrical energy, providing a controllable and consistent power source that is not dependent on external water flow parameters.
3Force
If engines providing high output torque are used to drive mechanical devices, then the mechanical work capability is sufficient, but the engines require external power sources that may not be available in remote areas
Solution Approach 1:
The system replaces the conventional mechanical engine with a direct mechanical-to-electrical conversion system. Instead of using a combustion or electric engine to produce torque, the buoyant ball mechanism directly generates mechanical rotation that drives the generator, eliminating the need for external fuel or power sources while maintaining high torque output capability.
Solution Approach 2:
The system extracts the power generation function directly from the mechanical motion of buoyant balls, removing the need for separate engine components. The mechanical energy from ball movement is directly converted to electrical energy through the generator, simplifying the system and eliminating dependency on external power sources while maintaining sufficient torque for mechanical work.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system provides a consistent and continuous high output torque, independent of environmental conditions, enabling reliable operation of mechanical and electrical devices by leveraging buoyant forces and gravity, ensuring a stable power source.
Implementation Method 1
a ball rising through the liquid column of the liquid exits the top opening of the riser tube and enters one of the receiver cavities of the first wheel with a buoyant force causing the first wheel to rotate
Implementation Method 2
leveraging buoyant forces and gravity, ensuring a stable power source
Data Source
AI summary
A power-generating wheel system is provided and includes a liquid-filled riser tube, air balls circulating therethrough due to buoyancy, a top wheel located adjacent a top opening of the riser tube and having air ball receiver cavities and a second wheel located adjacent a bottom opening of the riser tube and having a sealed housing for releasing the air balls into the riser tube and receiving liquid from the riser tube. As air balls exit the top opening of the riser tube they rotate the first wheel, this rotation being transferred to the second wheel by a drive chain. A transfer system transfers the torque on the second wheel to an external device to be powered. A return chute returns the air balls from the first wheel back to the second wheel. A liquid supply system is provided to maintain the riser tube full of liquid.