Hydroelectric Platform Torque via Dynamic Fluid Containers
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Solution Overview
Problem
Existing hydroelectric power systems face limitations in torque generation efficiency and ecological impact, with traditional designs often requiring significant water flow and causing environmental disruptions, and previous solutions like U.S. Pat. No. 9,890,761 are limited in maximum torque due to the number of containers on a downward trajectory.
Innovation Solution
A hydroelectric power system featuring a hub with radially extending arms and containers that move along a track with alternating high and low points, utilizing gravity to rotate a platform and generate torque, with fluid-filled containers moving downward to rotate the platform and expel water, allowing for continuous rotation and efficient energy conversion.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Power
If traditional dams are erected to generate steady falling water for electricity, then power generation capability is improved, but environmental impact on animal life and river ecosystems worsens
Solution Approach 1:
The invention extracts the power generation function from the traditional dam structure. Instead of blocking the river with a dam, the system uses free-flowing water to lift and release weights that drive generators, thereby separating electricity generation from river blockage and eliminating harmful environmental impacts while maintaining power generation capability
Solution Approach 2:
The invention introduces weights as an intermediary mechanism between water flow and power generation. Water lifts weights, and the descending weights drive generators, creating a mediating system that converts hydraulic energy to mechanical energy without requiring a dam, thus enabling power generation while preserving natural river flow and ecosystem health
2Force
If the number of containers on downward trajectory is increased to create maximum torque, then torque generation is improved, but device complexity and space requirements worsen
Solution Approach 1:
The invention makes the container positions dynamic rather than static. Containers continuously move between elevated and lowered positions, with multiple containers operating at different stages of the cycle simultaneously. This dynamic arrangement allows fewer containers to generate maximum torque at any given moment while maintaining continuous rotation and reducing overall device complexity
Solution Approach 2:
The system employs periodic action where containers are cyclically lifted and released in sequence. This periodic operation allows a small number of containers to produce continuous torque by being at different phases of the cycle, eliminating the need for numerous containers to be simultaneously positioned for torque generation and thereby reducing device complexity
3Power
If water flow rate is increased to improve power generation, then energy output is improved, but ecological disruption and environmental impact worsen
Solution Approach 1:
The system uses the natural flow and elevation of water to lift weights, requiring no additional water diversion or flow modification. The water naturally returns to the river after lifting weights, maintaining self-service operation that generates power without ecological disruption or harmful environmental factors
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 achieves increased torque generation with minimal environmental impact by efficiently converting falling water into rotational energy, allowing for scalable and highly efficient hydroelectric power generation with reduced ecological disruption.
Implementation Method 1
Each container includes a supporting mechanism that is designed to engage with and run along the track to provide support for each container. The track is provided having an alternating set of high points and low points where the container is filled with the fluid as a high point such that gravity causes the container to move downward
Implementation Method 2
A hydroelectric power system featuring a hub with radially extending arms and containers that move along a track with alternating high and low points, utilizing gravity to rotate a platform and generate torque
Data Source
AI summary
A hydro-electric power generation system that converts falling water energy into rotational energy that is used to generate electricity. The mechanical portion of the device including a rotating platform with a track positioned thereon with angled portions that allow water-filled buckets to move downward thereby rotating the platform. Alternate buckets filled and then emptied causing continual rotation of the platform as long as a water source continues to provide a stream of water to the device.