We are solving the efficiency problem at the physics layer. By implementing a solid-state "Magnetic Transistor," we unlock a new tier of performance: cooler power systems, smarter industrial drives, and radiation-hardened logic. This is not just component optimization; it is a fundamental restructuring of how magnetic circuits manage energy.

✨ Why It Matters: Tackling the hard problems

Standard magnetic systems have hit a physical ceiling. Whether it is heat in a data center or the noise of a motor, the problem is always the same: traditional components fight their own magnetic fields. FluxWorx solves this by moving from "brute force" control to Differential Flux Steering (DFS).

Here is how we are applying the Magnetic Transistor to the industries that need it most:

🧲 The Magnetic Transistor & Diode

The foundation of our technology, providing the first practical method for linear, proportional control of magnetic flux. By using a small "nudge" to redirect energy rather than blocking it, we achieve full control using only 10–20% of the energy required by traditional methods. This is magnetic control at the physics layer—cool, quiet, and incredibly efficient.   [Read More]

🔌 AI Data Center & Telecom Power

AI racks are now hitting physical limits in heat and power density. Our DFS-enhanced DC-DC modules act as a "magnetic knob" to regulate power transfer without forcing semiconductors into high-loss extremes. This reduces thermal hotspots and can lower associated cooling energy by up to 30%.   [Read More]

🚃 High-Performance SR Motors

We are transforming the Switched Reluctance (SR) motor into a "Permanent Magnet Motor killer". By using active wave-shaping to steer flux during phase transitions, we eliminate the torque ripple and acoustic noise that usually plague "no-rare-earth" motors. It is a simpler, cheaper, and more robust alternative to magnet-dependent drives.   [Read More]

🖥️ Flux-Onic Logic & Secure Computing 

Flux-Onic logic represents a post-silicon paradigm where magnetic flux pathways—not electron charges—represent binary states. Because there is no charge flow to probe, the hardware is virtually unhackable. Furthermore, these systems are inherently immune to radiation and EMP interference, making them vital for aerospace and defense.   [Read More]

👨‍🔧 Numerous Other Applications

Beyond the primary sectors of AI power and propulsion, Differential Flux Steering (DFS) serves as a versatile "force multiplier" for a vast range of high-energy and mission-critical systems. In the Power Tranche, DFS acts as a magnetic check-valve and buffering element, shielding sensitive silicon electronics from destructive transients, voltage spikes, and back-EMF events in EV traction inverters and industrial grid infrastructure. In the Signal and Logic Tranche, the technology scales down to create rugged, radiation-hardened control planes and multi-valued magnetic logic that can thrive in environments—such as deep space or high-EMI industrial sites—where traditional microelectronics often fail. By replacing "insurance iron" and heavy shielding with elegant flux routing, we are making global power conversion smaller, lighter, and fundamentally more survivable.   [Read More]

 

🛡️ Validation & Progress

The Magnetic Transistor is no longer just a concept.

• FEA Modelling: Independent simulations confirm the directional-transistor effect across multiple materials and scales.
• Prototype Success: Bench prototypes demonstrate clean, real-time flux steering with minimal hysteresis.
• IP Protection: Our core architecture and embodiments are protected under a robust and growing patent portfolio.
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🧲 IP Status: FluxWorx holds three provisional patents, filed March, May & July 2025, with a full PCT application scheduled for early 2026.