Plasma Beam Treatment for Electromagnetic Spin Inversion
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing methods for treating articles with particle accelerators are not effective in modifying the electromagnetic spin of materials to reduce harmful electrostatic magnetism and convert electromagnetic frequencies for beneficial use.
Innovation Solution
A plasma beam treatment method using a combination of helium, xenon, and hydrogen gas jets within a plasma accelerator, deflected by a strong magnetic field, inverts the orbital spin of electrons in articles, allowing them to convert laevorotatory to dextrorotatory spin, which can be applied to materials attached to electromagnetic devices to reduce harmful emissions and convert frequencies to infrared for health benefits.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Object-affected harmful factors
If a plasma beam is used to treat articles, then the electromagnetic spin of materials can be modified, but the device complexity increases due to the need for laser beams, gas jets, and magnetic fields
Solution Approach 1:
The treatment process is divided into sequential stages: laser beam generation, gas jet injection (helium, xenon, hydrogen isotopes), plasma formation, magnetic field application for deflection, and article treatment. Each component performs a specific function, allowing the complex system to be managed through modular segmentation of the plasma generation and application process
Solution Approach 2:
The plasma beam acts as an intermediary carrier that transfers energy and modifies electromagnetic spin properties of articles. The magnetic field serves as an intermediary to deflect and control the plasma beam trajectory. These intermediary elements enable the transformation of electromagnetic properties without direct contact between the article and the treatment source
2Object-affected harmful factors
If the plasma beam is deflected by magnetic field to invert electron orbital spin, then harmful electrostatic magnetism is reduced, but the treatment time must be precisely controlled within 20-30 seconds
Solution Approach 1:
The treatment is applied as a periodic process with controlled duration of 20-30 seconds. The plasma beam is activated for this specific time interval to achieve the desired inversion of electron orbital spin from laevorotatory to dextrorotatory configuration, after which the beam is deactivated. This periodic application ensures sufficient treatment effect while preventing over-treatment and energy waste
Solution Approach 2:
The magnetic field intensity is set above 10000 Gauss to achieve effective deflection of the plasma beam and inversion of electron spin. The gas jet concentrations are optimized (30-70% helium with 70-30% xenon, and 30-70% deuterium with 70-30% tritium) to produce the required plasma characteristics. These parameter optimizations ensure the treatment achieves the desired effect within the 20-30 second time window
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 method effectively reduces harmful electromagnetic spin in materials, converting it to a dextrorotatory spin and transforming electromagnetic frequencies to infrared, providing protection and health benefits, such as reducing electrostatic magnetism in devices like mobile phones, and converting electromagnetic spin during use.
Implementation Method 1
a device 1 adapted to emit a laser beam 2
Implementation Method 2
The combination of the laser beam 2 with the jet of noble gases (helium and xenon) produces a first accelerated plasma beam
Implementation Method 3
The collimated beam 5 is induced to pass through a magnetic field 7 having an intensity higher than 10000 Gauss, which is produced by appropriate magnetic means. The latter allows to deflect the electrons on the basis of their energy
Implementation Method 4
a magnetic field 7 having an intensity higher than 10000 Gauss... allows to deflect the electrons on the basis of their energy
Data Source
Figure 1
AI summary
There is disclosed a method for the treatment of articles (9) including the following steps: - the generation of a laser beam (2), - the combination of the laser beam (2) with a first gas jet (3) including helium and xenon gases thus obtaining a first accelerated plasma beam, - the following combination of the first plasma beam with a second gas jet (4) including the deuterium and tritium gases thus obtaining a second accelerated plasma beam (5), - the collimation (6) of the second plasma beam, - the application of a magnetic field (7) to the second plasma beam to deflect the electrons of the plasma beam on a plate (8) where said articles are arranged, the application of the plasma beam deflected by the magnetic field on the articles arranged on the plate (8) for a given period of time.