Plasmon Oscillating Target Structure for Enhanced Electron Screening
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Solution Overview
Problem
Conventional electron screening techniques for nuclear fusion reactions are limited by static electron charge densities, which restrict the achievable electron screening effects around light element atoms, hindering the enhancement of fusion reaction rates.
Innovation Solution
The use of target structures configured to undergo plasmon oscillations in response to electromagnetic radiation, generating transient high-density electron clouds in localized regions, thereby increasing electron charge density levels beyond those achievable with static screening methods, enhancing Coulomb repulsion screening around light element atoms.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Stability of the object's composition
If conventional static electron charge density techniques are used for electron screening, then the electron distribution is stable and unchanging, but the electron charge density is limited to intrinsic material levels and cannot achieve higher screening effects
Solution Approach 1:
The patent applies dynamics by transforming the static electron charge density into a dynamic, time-varying electron density through plasmon oscillations. The electron density is modulated at plasmon resonance frequencies, creating transient high-density regions that significantly enhance electron screening effects beyond static material limits.
Solution Approach 2:
The patent employs periodic action by using oscillating electromagnetic fields at plasmon resonance frequencies to periodically modulate the electron density. This periodic excitation creates cyclic transient high-density electron clouds that enhance screening effects during peak density phases.
2Quantity of substance
If electromagnetic radiation is used to induce plasmon oscillations, then transient high-density electron clouds are generated in localized regions, but the charge density enhancement occurs only for short time periods during each oscillation cycle
Solution Approach 1:
The patent uses periodic electromagnetic radiation at plasmon resonance frequencies to create cyclic electron density enhancements. Although each enhancement pulse is brief, the periodic repetition maintains sustained average enhancement effects while avoiding continuous high-energy input.
Solution Approach 2:
The patent accepts the transient nature of plasmon-induced density enhancement and leverages the dynamic oscillation to create time-varying screening effects. The system is designed to operate in the time domain, where fusion reactions can occur during the brief high-density phases.
3Quantity of substance
If EM radiation at plasmon resonance frequency is applied, then the amplitude of dynamic charge density variation reaches maximum, but the system requires precise frequency matching to achieve resonant enhancement
Solution Approach 1:
The patent employs the intrinsic plasmon resonance frequency of the metal nanoparticle as a natural reference. The system self-determines the optimal excitation frequency through the material's inherent resonant properties, eliminating the need for external frequency control mechanisms or complex tuning systems.
Solution Approach 2:
The patent changes the electromagnetic radiation frequency parameter to match the plasmon resonance frequency of the metal material. This parameter adjustment maximizes the amplitude of electron density oscillations and achieves resonant enhancement of electron screening effects.
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 approach significantly increases fusion reaction rates by creating elevated peak charge density levels that are transient but substantially higher than those achieved with conventional methods, effectively reducing Coulomb repulsion and increasing the probability of nuclear fusion events.
Implementation Method 1
configured to undergo plasmon oscillations in response to electromagnetic (EM) radiation... producing transient high density electron clouds in localized regions
Implementation Method 2
configured to undergo resonant plasmon oscillations at a corresponding plasmon resonance frequency wherein the amplitude of dynamic charge density variation goes through a maximum
Implementation Method 3
electron cloud present that can screen the Coulomb repulsion between the two positively charged nuclei... reduction in the Coulomb barrier via electron screening
Implementation Method 4
nuclear fusion reaction rates... D(d,p)T fusion... colliding together two positively charged nuclei
Data Source
AI summary
Enhanced Coulomb repulsion (electron) screening around light element nuclei is achieved by way of utilizing target structures (e.g., nanoparticles) that undergo plasmon oscillation when subjected to electromagnetic (EM) radiation, whereby transient high density electron clouds are produced in localized regions of the target structures during each plasmon oscillation cycle. Each target structure includes an integral body composed of an electrically conductive material that contains light element atoms (e.g., metal hydrides, metal deuterides or metal tritides). The integral body is also configured (i.e., shaped/sized) to undergo plasmon oscillations in response to the applied EM radiation such that the transient high density electron clouds are formed during each plasmon oscillation cycle, whereby brief but significantly elevated charge density variations are generated around light element (e.g., deuterium) atoms located in the localized regions, thereby enhancing Coulomb repulsion screening to enhance nuclear fusion reaction rates. Various target structure compositions and configurations are disclosed.