SHF Propulsor Coil-Ring Asymmetry Thrust Control
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Solution Overview
Problem
Current super high frequency (SHF) propulsion systems face challenges in achieving precise control and synchronization of electromagnetic pulses, energy efficiency, and minimizing electromagnetic interference, while also requiring advanced materials to withstand high-intensity fields and rapid pulse generation, which complicates their design and practical application.
Innovation Solution
A SHF propulsor system utilizing Electromotive Force, Magnetostriction, and Magnetic Eddy Currents in a Coil-Ring configuration, where electromagnetic induction generates a controlled thrust through a coordinated interplay between an emitter coil and a receptor ring, leveraging anisotropic materials and magnetic metamaterials to optimize magnetomechanical force generation, and employing Jefimenko's equations for device construction.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Force
If electromagnetic pulses are generated at super high frequency for propulsion, then thrust generation capability is improved, but energy consumption increases significantly
Solution Approach 1:
The system employs periodic electromagnetic pulses at super high frequency (greater than 3 GHz) to generate thrust through repeated magnetostriction cycles in the ring component. This periodic action allows the system to accumulate propulsive force over multiple cycles while maintaining manageable instantaneous energy requirements, resolving the contradiction between thrust generation and energy consumption.
Solution Approach 2:
The patent utilizes magnetostriction, a phase transition phenomenon where magnetic fields induce dimensional changes in ferromagnetic materials. By operating in the SHF range, the system exploits rapid phase transitions in the ring material to generate mechanical motion from electromagnetic energy, improving thrust efficiency while controlling overall energy consumption through non-contact operation.
2Productivity
If super high frequency electromagnetic pulses are used for propulsion, then propulsion efficiency is improved, but electromagnetic interference with surrounding equipment increases
Solution Approach 1:
The system employs an asymmetric coil-ring configuration where the ring is positioned offset from the coil center, creating an asymmetric magnetic field distribution. This asymmetry generates net thrust while the specific geometric arrangement and shielding design minimize omnidirectional electromagnetic radiation, thereby reducing interference with surrounding equipment while maintaining high propulsion efficiency.
3Reliability
If advanced materials are used to withstand high-intensity electromagnetic fields, then system reliability is improved, but device complexity and cost increase
Solution Approach 1:
The ring component serves dual functions: it acts as both the propulsive element undergoing magnetostriction and as the magnetic shielding material protecting internal components from high-intensity electromagnetic fields. This self-service approach eliminates the need for separate shielding structures, reducing device complexity while maintaining system reliability through non-contact operation that prevents material degradation.
4Measurement precision
If precise control and synchronization of electromagnetic pulses is achieved, then thrust control accuracy is improved, but system complexity increases
Solution Approach 1:
The system uses periodic electromagnetic pulses with fixed frequency greater than 3 GHz, where the ring material's natural resonant properties and magnetostriction characteristics provide inherent synchronization. This approach achieves precise thrust control through simple periodic excitation rather than complex real-time control systems, maintaining high measurement precision while minimizing system complexity.
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 reliable and controlled thrust with minimal energy input, reducing interference and enhancing propulsion efficiency, suitable for spaceflight and other applications by exploiting fundamental electromagnetic principles without violating physical laws, and potentially enabling propellant-less spacecraft.
Implementation Method 1
The EMF is the result of fluctuating magnetic fields as they pass through conductive material (in our case, the Ring-Coil Thruster). The super high frequency propulsors uses this Magnetic-Physical interaction to generate a mechanical force.
Implementation Method 2
The effect of Magnetostriction is another principle contributor to thrust in this system. Magnetostriction is the property of physical compounds that change shape under applied magnetic fields.
Implementation Method 3
Central to the operational mechanics of the system or apparatus is Electromotive Force, Magnetostriction, Magnetic Eddy Currents and other phenomena in the SHF range.
Implementation Method 4
the internal structure of the Ring heats through Joule Heating
Data Source
AI summary
A system and method are disclosed for generating asymmetric net force in a closed system using Super High Frequency (SHF) electromagnetic induction (at least at 3 gHz) and magnetic metamaterials. The system includes an engine or propulsor. The propulsor includes a propagative electromagnetic element or an emitter coil, a collective electromagnetic element or receptor ring and a coaxial magnetic core. The method involves energizing the electromagnetic emitter coil at a frequency of at least 3 gHz to induce the receptor ring element in a manner that causes a magnetomechanical action through internal heating (Joule Heating) of the receptor ring atomic substrate (via SHF EMF), The super high frequency propulsor uses one of, a combination of, or all of, the unique EM activity such as: Magnetostriction, SHF Electromotive Force and Magnetic Field Asymmetry in this specific Coil-Ring with Magnetic Core system in SHF (>3 GHZ) to generate a usable magnetomechanical force.