Solid-State Wind Turbine Ion Collection Optimization
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Solution Overview
Problem
Conventional wind turbines are large, noisy, and inefficient in converting wind energy to electricity, with safety concerns due to electrostatic charging of insulating materials and environmental issues from chemically reactive ions, making them unsuitable for urban areas.
Innovation Solution
A solid-state wind turbine device that ionizes air using an ionizer and moves ions through an electrostatic opposing field to a collector electrode, with a counter-electrode positioned ahead to enhance ion collection and energy generation, utilizing a regulated power optimizer to maximize energy output.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of manufacture
If a separate collecting electrode is used instead of the ground, then the device structure is improved, but a large part of the ions is repelled by the collecting electrode and discharged elsewhere, so that it does not contribute to the generation of energy
Solution Approach 1:
The patent introduces a counter-electrode as an intermediary component positioned between the ionizer and the collecting electrode. This counter-electrode creates an opposing electric field that guides ions toward the collecting electrode, preventing them from being repelled and ensuring they contribute to energy generation. The counter-electrode acts as a mediator that resolves the conflict between device structure improvement and energy generation efficiency.
2Productivity
If the electrical potential of the collecting electrode is increased to improve ion collection, then more ions are collected, but the repulsive potential from the collecting electrode increases and repels ions away
Solution Approach 1:
The patent applies different electrical potentials to different electrodes in a localized manner. The counter-electrode is assigned a specific potential that creates an opposing field in its local region, while the collecting electrode maintains a high potential for ion collection. This local differentiation of electrical properties allows the system to simultaneously attract ions to the collecting electrode while using the counter-electrode to guide them there, resolving the repulsion issue.
3Power
If conventional wind turbines are made larger to increase energy generation, then more electrical energy can be generated, but they significantly disrupt the landscape and emit considerable noise
Solution Approach 1:
The patent replaces the mechanical rotating system of conventional wind turbines with an electrostatic field-based system. Instead of using large mechanical rotors that generate noise and visual disruption, the invention uses ionization and electrostatic fields to convert wind energy directly into electrical energy. This substitution of mechanical principles with electrostatic principles eliminates the harmful effects while maintaining energy generation capability.
4Device complexity
If insulating materials are placed several meters away from the system, then they become electrostatically charged in the kV range, but this creates a considerable risk of electric shock for people and animals
Solution Approach 1:
The patent implements a regulated electronic power optimizer that continuously monitors and adjusts the electrical parameters of the system. This feedback mechanism ensures that the electrical potential is optimized for energy generation while preventing dangerous voltage levels that could cause electric shock. The system automatically adjusts operating parameters to maintain safety while maximizing performance.
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
Significantly increases the proportion of ions contributing to electricity generation, reducing noise and space requirements, allowing for urban installation while ensuring safety and efficiency.
Implementation Method 1
electrically charged molecules are generated and injected into the surrounding air, which are then moved by the wind through an electrostatic opposing field of a collecting electrode
Implementation Method 2
moved by the wind through an electrostatic opposing field of a collecting electrode
Implementation Method 3
discharged again at the collecting electrode and thus the Air are removed for the most part
Data Source
Figure 1~2
Figure 3
Figure 4
AI summary
The method involves ionizing air in airflow by using an ionizer (1). The airflow is passed through an electric field of collecting electrode (2) which acts as a counter-field for ions in air, such that ions are collected and discharged at collecting electrode. The ions are initially passed through an electric field of a counter electrode (3) mounted in front of collecting electrode. The electric potential of counter electrode is made higher than that of collecting electrode, such that ionized air molecules from counter electrode electric field overcomes with the help of wind force. An independent claim is included for device for performing direct conversion of wind energy into electrical power.