Multi-hybrid power generator system and method
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Solution Overview
Problem
Existing energy systems face inefficiencies and environmental challenges in energy generation, storage, and conversion, particularly in hybrid systems incorporating hydrogen power, due to reliance on fossil fuels, geographic constraints, and complex mechanical components that increase costs and reduce efficiency.
Innovation Solution
A multi-hybrid power generator system utilizing battery banks, hydraulic electrical actuation devices (HEADs), pistons, and an intelligent power controller to efficiently harvest, generate, and store energy from interchangeable power sources, including solar and wind, without fossil fuels, using a hydraulic-to-hydrogen-to-electric power generation system.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Use of energy by moving object
If wind turbines are deployed to generate electricity from wind power, then renewable energy generation is improved, but the system becomes highly dependent on geographic location, season, and weather conditions
Solution Approach 1:
The patent creates a hybrid power system that can operate with multiple interchangeable power sources (wind, solar, hydraulic, fossil fuel generators). The system is designed to accept different types of prime movers and convert their mechanical output to electricity through generators, making it universally adaptable to various energy sources rather than being specialized for just wind power.
Solution Approach 2:
The system allows dynamic switching between different power sources based on environmental conditions, availability, and operational requirements. The controller monitors and adjusts the operational parameters of each power source, enabling the system to adapt to changing weather conditions, seasonal variations, and geographic constraints by optimizing the mix of power sources used.
2Use of energy by moving object
If solar photovoltaic systems are used to harvest energy from the sun, then electricity generation is improved, but the system becomes intermittent and requires battery storage which increases overall costs
Solution Approach 1:
The patent combines solar photovoltaic systems with other power sources (wind, hydraulic, fossil fuel generators) into a hybrid power system. This merging of multiple power sources compensates for the intermittency of solar power by providing alternative energy inputs when sunlight is unavailable, reducing or eliminating the need for large battery storage systems.
Solution Approach 2:
The system is designed to accept multiple types of power inputs simultaneously or alternately. The solar panels work in conjunction with wind turbines, hydraulic systems, and backup generators, creating a multi-functional power generation platform that can operate under various environmental conditions without requiring extensive energy storage infrastructure.
3Power
If mechanical gearboxes are used in power generation systems, then mechanical power conversion is achieved, but maintenance costs increase and system reliability decreases
Solution Approach 1:
The patent employs direct-drive generator technology that eliminates mechanical gearboxes from the power transmission system. The generators are directly coupled to the prime movers (wind turbines, hydraulic motors, etc.) through flexible couplings or magnetic couplings, removing the need for complex gearbox mechanisms while maintaining efficient mechanical power conversion.
Solution Approach 2:
The design extracts and removes the gearbox component from the power generation system entirely. By using direct-drive generators, the system eliminates the mechanical transmission stage that requires maintenance, simplifying the overall architecture and improving reliability by removing a major failure point.
4Reliability
If fossil fuels are used for electricity generation, then reliable power supply is maintained, but environmental pollution and greenhouse effects are worsened
Solution Approach 1:
The system is designed as a hybrid power plant that can operate with multiple fuel types and energy sources. Fossil fuel generators are included as backup or supplemental power sources alongside renewable energy systems (wind, solar, hydraulic), allowing the facility to switch between clean and conventional energy inputs based on operational needs, environmental conditions, and market factors.
Solution Approach 2:
The system dynamically adjusts the operational parameters of fossil fuel generators based on the availability of renewable energy inputs. When wind, solar, or hydraulic power is sufficient, the fossil fuel generators operate at reduced capacity or remain standby. The controller optimizes the fuel mix to maintain reliable power supply while minimizing environmental impact by prioritizing cleaner energy sources.
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 high efficiency in energy conversion and storage, reduces environmental impact, and lowers maintenance costs by eliminating mechanical gearboxes and optimizing energy distribution through intelligent power management.
Implementation Method 1
one or more battery banks electrically connected to receive and store energy from an interchangeable power source in hydraulic electrical actuation devices (HEADs)
Implementation Method 2
The HEADs drive mechanical energy through pistons to piston rods, each having a pair of retracting springs connected thereto. The piston is located within a hydraulic chamber. The system also includes a crankshaft driven by the pistons
Implementation Method 3
A multi-hybrid power generator system utilizing battery banks, hydraulic electrical actuation devices (HEADs), pistons, and an intelligent power controller to efficiently harvest, generate, and store energy
Data Source
AI summary
A power generation system includes an extraction device configured to extract moisture from an ambient air surrounding the system, a first tank configured to store the moisture, an electrolyzer configured to receive the moisture and produce hydrogen by performing a chemical process, a second tank configured to store the hydrogen produced by the electrolyzer, a generator system configured to generate electrical power from the hydrogen, and a controller configured to control operation of the extraction device and the electrolyzer.