Multi-Stage Water Lifting Chambers Using Pressure Differentials
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Solution Overview
Problem
Current methods of generating electricity, such as hydroelectric, fossil fuel, and renewable sources, face challenges including location restrictions, high construction costs, environmental impact, limited scalability, and inefficiencies, leading to significant drawbacks in power generation and distribution.
Innovation Solution
A system of vertically stacked cylindrical chambers uses differential pressure to lift water without pumps, driving it through turbines to generate power, allowing for flexible location, scalability, and reduced environmental impact, with no fuel consumption or emissions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Power
If hydroelectric generators are located on watercourses to generate power, then power generation is enabled, but transmission lines and infrastructure costs increase significantly
Solution Approach 1:
The invention divides the water lifting function into multiple stages using a series of chambers stacked vertically. Each chamber acts as an independent stage that contributes to the overall water elevation, allowing the system to be distributed and eliminating the need for long-distance transmission lines.
Solution Approach 2:
The patent transitions from horizontal water flow (traditional hydroelectric) to vertical water stacking using atmospheric pressure differentials. By utilizing the vertical dimension and atmospheric pressure gradient, the system can be located anywhere with access to water sources without requiring extensive transmission infrastructure.
2Power
If dams and collection points are constructed to increase water volume and velocity, then turbine power generation is improved, but construction costs and environmental impact increase
Solution Approach 1:
The system uses atmospheric pressure itself as the driving force to lift water through the chamber stages. This self-service mechanism eliminates the need for external pumps, motors, or complex mechanical lifting equipment, dramatically reducing construction and operational costs while avoiding environmental disruption.
Solution Approach 2:
The invention employs pneumatic principles by utilizing atmospheric pressure differentials created by vacuum pumps to drive water through the chamber stages. This replaces traditional hydraulic approaches requiring dams and collection points with a cleaner, more cost-effective pneumatic-driven system.
3Power
If water is lifted using conventional pumps to drive turbines, then power generation is enabled, but energy consumption and system complexity increase
Solution Approach 1:
The system uses atmospheric pressure as a free, naturally occurring resource to perform the water lifting function. By harnessing this ambient pressure source, the system avoids the energy consumption associated with electric or mechanical pumps while maintaining the ability to drive turbines for power generation.
Solution Approach 2:
The patent introduces vacuum pumps as intermediaries that create pressure differentials to drive water through the chamber stages. These vacuum pumps consume minimal energy compared to traditional water pumps and enable the system to leverage atmospheric pressure for the bulk of the lifting 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
This method enables efficient, scalable, and environmentally friendly power generation with reduced infrastructure needs, self-sustainability, and the ability to respond to demand fluctuations, eliminating the need for long-distance transmission and minimizing environmental impact.
Implementation Method 1
Atmospheric pressure in volume A1 forces water up lift lines 14 to volume B1 of the stage above
Implementation Method 2
The lifted water is then dropped through a generator to create electrical power
Data Source
AI summary
An improved method of lifting fluid using the difference between atmospheric or higher boosted pressure and fluid vapor or vacuum pressure applied to a series of chambers with a movable plate that divides each into variable volumes, and comprises one stage of the system. Combinations of pressures in the chambers between the movable plates lift the fluid to a height where the fluid column base pressure equals atmospheric or boosted pressure less friction and mass losses. A vertical array of stages, each lifting fluid from the stage below it, allows fluid to be lifted to any height, limited only by structure or geographic elevation. Further; operating pressures are tapped from the top and bottom of a standpipe filled with static fluid, pressure changes are made when the volumes are zero, and the sum of the volume receiving fluid and volume delivering the fluid are constant, making the system closed. Once raised, the fluid may be released for it's end use and more particularly; through a power generator. Where the fluid is water in an open environment and fed through a turbine, the water may be returned to the system reservoir to be reused in the cycle or if in a closed system the fluid may be returned to a chamber under pressure for reuse.