Inducing Current Variations via Spatiotemporal Magnetic Flux
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Solution Overview
Problem
Existing techniques are limited in varying electrical current and conductivity in electrical current channels, particularly in response to spatiotemporal magnetic flux patterns and electromotive force (EMF) variations, and lack effective methods for inducing electrical current variations that increase magnetic flux density.
Innovation Solution
The implementation of configurations where a spatiotemporal magnetic flux pattern induces electrical current variations in channels, utilizing inductive coupling between sets of channels, and employing EMF triggering diodes to create transient electrical currents and cascading effects to amplify EM waveforms.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If conventional voltage control on transistor gates is used to control channel conductivity, then channel conductivity can be controlled, but the ability to induce electrical current variations that increase magnetic flux density is limited
Solution Approach 1:
The patent replaces conventional voltage control mechanisms with electromagnetic induction. Spatiotemporal magnetic flux patterns are used to induce electrical current variations in channels, substituting the mechanical/electrical voltage control system with an electromagnetic field-based system. This allows for more versatile current induction while potentially simplifying the control architecture by using magnetic field patterns instead of complex voltage modulation circuits.
Solution Approach 2:
The patent changes the control parameter from voltage (electrical potential) to magnetic flux density (magnetic field strength and temporal variation). By controlling spatiotemporal magnetic flux patterns, the system induces electrical current variations through electromagnetic induction. This parameter change enables new modes of channel control that can increase magnetic flux density, which was not achievable with conventional voltage control alone.
2Adaptability or versatility
If voltage control is used to vary channel conductivity, then conductivity can be adjusted, but transient electrical currents and cascading effects cannot be generated
Solution Approach 1:
The patent employs periodic or pulsed magnetic flux patterns to induce transient electrical currents in channels. By applying time-varying magnetic fields with specific temporal characteristics, the system generates transient currents that can cascade through multiple channels. This periodic action replaces continuous voltage control, enabling transient current generation while improving energy efficiency by applying energy only during the required transient periods rather than continuously.
Solution Approach 2:
The patent introduces magnetic flux patterns as an intermediary between the control system and the channel current. Instead of directly applying voltage to control current, the system uses magnetic fields as a mediator to induce currents through electromagnetic induction. This intermediary approach enables transient current generation and cascading effects while maintaining energy efficiency, as the magnetic field can be rapidly switched on and off to create transient effects without continuous energy input.
3Power
If conventional current control methods are used, then current can be controlled, but magnetic flux density cannot be increased through induced current variations
Solution Approach 1:
The patent applies the concept of oscillation and vibration to magnetic flux patterns. By using time-varying magnetic fields that oscillate or pulse with specific frequencies and amplitudes, the system induces electrical current variations in channels. These oscillating magnetic flux patterns increase magnetic flux density dynamically, and the rhythmic nature of the induction process makes the system easier to control and predict, improving ease of operation while achieving higher magnetic flux density.
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
This approach enables a wider range of interactions between channels and magnetic flux patterns, inducing electrical current variations that increase magnetic flux density and varying conductivity in response to EMF, while also triggering transient electrical currents and amplifying EM waveforms through cascading effects.
Implementation Method 1
Variation may result, for example, from spatiotemporal magnetic flux patterns
Implementation Method 2
Variation may result, for example, from spatiotemporal magnetic flux patterns or from variation in electromotive force (EMF)
Implementation Method 3
In presence of magnetic field, Lorentz force deflects moved charge carriers, thus increasing resistance in an MOS channel
Data Source
AI summary
Electrical current and/or conductivity in an electrical current channel varies in response to spatiotemporal magnetic flux pattern and/or to variation in electromotive force (EMF). For example, a channel with time-varying electrical conductivity can have induced electrical current variation due to flux pattern resulting from electrical current in another channel or set of channels; the current variation can increase magnetic flux density. The electrical currents can be transient electrical currents, and can cascade to amplify a resulting electromagnetic waveform. A channel can include the channel of a zener or zener-like diode or of a transistor, as well as an extended conductive channel. Channels can be configured in electrical current loops and in various orientations and combinations to obtain current and/or conductivity variation. A transient electrical current can be triggered in a channel, e.g. by an EMF peak, and circuitry with a combination of EMF triggering components can perform logical and timing operation.