Phase Insulator Spin-Current Control for Leakage Interruption
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Solution Overview
Problem
Conventional transistors fail to control low spin currents, leading to leakage currents in electronic devices, which cause issues like sudden unintended acceleration in electric cars, sparks, overheating, and instability in high-speed supercapacitors, due to their inability to manage zero-point energy leakage and require direct current operation.
Innovation Solution
A leakage current interruption device utilizing room-temperature superconductivity and phase insulators to generate spin currents, converting them into surface currents and supercurrents, leveraging charge symmetry and quantum tunneling phenomena to stabilize electronic circuits by connecting them to alternating or direct current power sources.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional transistors are used to control electronic circuits, then the device can operate with direct current, but leakage current occurs due to inability to control spin current
Solution Approach 1:
The patent changes the operating parameters from direct current to alternating current at specific frequencies (e.g., 2.4 GHz, 5 GHz) to enable spin current control. This parameter change allows the transistor to operate in a regime where spin currents can be generated and controlled, thereby eliminating leakage current while maintaining circuit stability.
Solution Approach 2:
The patent replaces the conventional direct current control mechanism with an alternating current-driven spin current control mechanism. By using AC signals to generate spin currents that modulate the channel conductivity, the system substitutes the traditional DC field-effect control with a spin-based control mechanism that prevents leakage current.
2Ease of operation
If conventional transistors operate at threshold voltage or more with direct current, then unidirectional control is achieved, but spin current cannot be controlled leading to zero point energy leakage
Solution Approach 1:
The patent employs periodic alternating current signals at specific frequencies to drive the spin current generation. The periodic nature of the AC signal enables continuous generation and control of spin currents, allowing the transistor to maintain unidirectional control capability while preventing zero point energy leakage through sustained spin current modulation.
3Ease of manufacture
If low electric current of nA or below is not sensed, then conventional transistors can be manufactured simply, but leakage current exists and cannot be controlled
Solution Approach 1:
The patent introduces spin current as an intermediary mechanism that bridges the gap between conventional current control and low current sensing. The spin current acts as a mediator that can be generated and controlled by AC signals, enabling the transistor to sense and control extremely low currents (nA or below) without requiring complex manufacturing processes.
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 solution effectively prevents leakage currents, enhancing stability and preventing issues like unintended acceleration, overheating, and overcharge, by converting spin currents into surface and supercurrents, ensuring reliable operation of electronic sensors and batteries in electric cars.
Implementation Method 1
room-temperature superconductivity of a phase insulator
Implementation Method 2
quantum tunneling phenomenon, which occurs spontaneously while up and down spins perform a rotary movement
Implementation Method 3
charge symmetry of antiparticles and a quantum tunneling phenomenon
Implementation Method 4
spin current is made because the spin has electrical charges of −1/2 and +1/2
Data Source
AI summary
A phase insulator according to the present invention can generate a spin current from the energy of a dipole composed of a particle and an antiparticle, and energy of the phase insulator is composed with mobility of the particle and stability of the antiparticle. The particle makes a particle velocity of a conductor, and the antiparticle makes stability of the insulator. The stability of the antiparticle becomes different according to the spin current of the phase insulator. Examples of the spin current include a Majorana fermion, a Weyl fermion, a Dirac fermion, and a neutrino, wherein the Dirac fermion has large stability and mobility and is live with a supercurrent. When a leakage current is interrupted using the Dirac fermion, as the quantum efficiency of an electronic circuit enhances, the span of life becomes longer and stability increases. The leakage current always exists in case that no phase insulator is used. The Majorana fermion which is an antiparticle has large stability due to quantum fluctuation but lacks mobility, and the Weyl fermion has mobility but has less stability than that of the Dirac fermion. The Dirac fermion which generates a supercurrent has both large stability and large mobility. The neutrino which is a particulate neutral current lacks stability and shows that mobility is not large. The phase insulator may be treated by a step of carrying out heat treatment after deposition, or the phase insulator may comprise a heat-resisting when applied to the other electronic circuits.