Temperature-Controlled Superconductor Engine for Quantum Locking Motion
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing electric generators face challenges with quantum locking, where superconductors trapped in magnetic fields resist movement, hindering continuous and efficient operation.
Innovation Solution
A temperature-controlled superconductor-based engine that utilizes repelling magnets and mechanical energy storage elements, along with a chilling fluid to cyclically control the superconductor's state, overcoming quantum locking and enabling continuous mechanical motion and electricity generation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Stability of the object's composition
If a superconductor is exposed to a magnetic field to achieve quantum locking, then the superconductor maintains a stable locked position, but the superconductor resists movement and cannot achieve continuous motion
Solution Approach 1:
The patent applies periodic action by cyclically switching the superconductor between superconducting and non-superconducting states through temperature control. During the superconducting state, the superconductor is locked to the magnetic field for stable positioning. During the non-superconducting state, the superconductor can move freely. This periodic switching enables continuous oscillating motion while maintaining stability during each locked phase.
Solution Approach 2:
The patent changes the temperature parameter of the superconductor to switch between superconducting and non-superconducting states. By controlling the temperature below and above the critical temperature, the system transitions between locked and movable states, resolving the contradiction between stability and movement capability.
2Ease of operation
If a temperature-controlled superconductor is used to overcome quantum locking, then continuous motion is enabled, but the system complexity increases due to temperature control mechanisms
Solution Approach 1:
The patent replaces complex mechanical motion control systems with a thermal control system. Instead of using mechanical actuators to move the superconductor, the system uses temperature control to switch between locked and movable states, simplifying the overall control mechanism while enabling continuous motion.
Solution Approach 2:
The superconductor's own temperature-dependent properties are utilized to achieve the locking and movement functions. The material inherently switches between superconducting and non-superconducting states based on temperature, eliminating the need for external complex control mechanisms and reducing system complexity.
3Power
If repelling magnets and mechanical energy storage elements are used to generate oscillating motion, then electricity generation is enabled, but the device complexity increases
Solution Approach 1:
The patent merges the magnetic field generation and energy storage functions into a unified system. Repelling magnets are positioned to interact with the superconductor, and mechanical energy storage elements (such as springs) are integrated to store and release energy during the oscillation cycle. This combination enables electricity generation through the alternator while maintaining a compact configuration.
Solution Approach 2:
The magnetic components serve multiple functions: they create the magnetic field for quantum locking, generate repelling forces for oscillating motion, and interact with the alternator for electricity generation. This multi-functionality reduces the need for separate components and simplifies the overall device 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 engine achieves efficient and uninterrupted operation by dynamically controlling the superconductor's temperature and magnetic interactions, allowing for direct conversion of mechanical motion to electrical energy without mechanical connecting rods, enhancing energy efficiency and adaptability.
Implementation Method 1
a temperature-controlled superconductor that acts as a source for mechanical motion transmission
Implementation Method 2
the temperature-controlled superconductor is located within a chamber that is adapted to receive a chilling fluid suitable to decrease the temperature of said superconductor in order to achieve a superconducting state
Implementation Method 3
Quantum locking, also known as flux pinning, occurs when a superconductor is exposed to a magnetic field and the field lines become trapped (pinned) in the superconductor, creating a locked position relative to the magnetic field source
Implementation Method 4
at least one pair of magnets and at least one element that stores mechanical energy to which each magnet is attached are configured to perform a linear motion in accordance with the superconducting state of the superconductor
Implementation Method 5
An electric generator translates a mechanical input into an electrical current. It is known, for example, to utilize a belt-driven shaft to provide an input to the alternator. Alternators utilize induction to generate electricity.
Data Source
AI summary
A superconductor-based engine including a temperature-controlled superconductor that acts as a source for mechanical motion transmission. In one aspect, an oscillating motion is obtained in accordance with switching alternately between a superconductivity state and a non-superconductivity state of the temperature-controlled superconductor.