Cryogenic Hydrogen Concentration for Antigravity Atom Separation
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing technologies are unable to efficiently extract and utilize hydrogen atoms with repulsive antigravity, which are rare and difficult to concentrate due to their repulsive nature, limiting their application in vehicles and spacecraft propulsion.
Innovation Solution
A cryogenic concentration process that separates and enriches hydrogen molecules with antigravity by exploiting gravitational buoyancy, followed by chemical and physical processes to produce pure antigravitational hydrogen molecules (H−H−) that provide repulsive antigravity without fuel or power consumption.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Temperature
If regular hydrogen molecules are liquefied and stored in cryogenic containers, then the hydrogen can be maintained at extremely low temperature to minimize convection and thermal diffusion, but the rare antigravitational hydrogen atoms remain difficult to concentrate and extract despite their repulsive nature
Solution Approach 1:
The patent exploits the repulsive antigravity property of hydrogen atoms to achieve gravitational separation. Antigravitational hydrogen atoms, having negative weight, experience buoyant force in the gravitational field of liquid hydrogen, causing them to drift upward and concentrate at the top of the container. This counteracts the usual gravitational settling of normal hydrogen atoms, enabling separation and concentration of the rare antigravitational species.
Solution Approach 2:
The patent uses an intermediary substance (liquid hydrogen with normal hydrogen atoms) to facilitate the separation process. The normal hydrogen atoms act as a medium through which the antigravitational hydrogen atoms can be separated via gravitational buoyancy. The intermediary liquid hydrogen provides the gravitational field necessary for separation while allowing the rare antigravitational atoms to concentrate at the top.
2Quantity of substance
If gravitational separation is applied to enrich antigravitational hydrogen atoms, then concentration increases, but the process requires recursive separation and chemical/physical processes to produce pure antigravitational hydrogen molecules
Solution Approach 1:
The patent divides the separation process into multiple stages: initial gravitational separation to enrich antigravitational hydrogen atoms, followed by chemical or physical processes to break down molecules and recombine them into pure antigravitational hydrogen molecules. This segmentation allows each stage to focus on a specific task, making the overall complex process more manageable and efficient.
Solution Approach 2:
The patent employs changes in physical and chemical parameters to achieve pure antigravitational hydrogen molecules. After gravitational separation enriches the concentration, the patent uses chemical reactions or physical processes that alter the state of hydrogen atoms to statistically produce molecules with exclusively antigravitational atoms. These parameter changes enable the transformation from enriched atoms to pure molecules.
3Quantity of substance
If antigravitational hydrogen molecules are produced through chemical and physical processes, then pure antigravitational hydrogen molecules can be obtained, but the processes require statistical production and recombination of atoms
Solution Approach 1:
The patent employs self-service mechanisms where the statistical recombination of antigravitational hydrogen atoms automatically produces antigravitational hydrogen molecules without requiring external intervention. The process uses the natural statistical distribution of atoms during chemical or physical processes to achieve pure molecule production, eliminating the need for complex separation or purification steps after recombination.
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
Enables sustained antigravitational levitation and propulsion for vehicles, spacecrafts, and space elevators, revolutionizing transportation and space travel by eliminating the need for fuel or power, and allowing for unprecedented maneuvers and constructions.
Implementation Method 1
Through gravitational buoyancy, rare weightless hydrogen molecules tend to drift to the top in liquid hydrogen mostly consisted of common hydrogen molecules and concentrate there over time
Implementation Method 2
regular hydrogen molecules are liquefied and stored in a tall cryogenic container maintained at uniform and extremely low temperature to minimize convection, thermal diffusion, and evaporation
Data Source
AI summary
This invention introduces practical procedures for concentration, purification and utilization of rare antigravitational hydrogen atoms created during early universe or later violent astronomical events following pair-production symmetry. A tall cryogenic concentration container maintains liquid hydrogen at extremely low, uniform and stable temperature with minimal convection and thermal diffusion. Rare molecules with zero gravity containing one rare antigravitational hydrogen atoms drift up and accumulate to the top by buoyancy. The concentrated zero-gravity hydrogen molecules are then chemically and/or physically broken down into individual atoms and recombined resulting in hydrogen molecules carrying normal gravity, zero gravity, and repulsive antigravity, respectively. When liquified and maintained in the cryogenic concentration container, the antigravitational hydrogen molecules are repelled to the top to be separated and purified. Cryogenic containers holding purified antigravitational liquid hydrogen can provide sustained levitation and propulsion for vehicles, aircrafts, space elevators, satellites, and spacecrafts consuming no fuel or energy.