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

🧲 For Industrial VFDs (Replacing "The Motor Paradox")

Active Flux Management for Industrial Drives Traditional drive systems waste significant energy fighting the static magnetic fields of inductive loads. At high outputs, this fixed flux becomes a liability, generating excess heat and limiting performance bandwidth.

The DFS Advantage: Our technology acts as an active gate for magnetic potential. By dynamically steering flux only where it is required, we reduce the "magnetic drag" on the system. This allows Variable Frequency Drives (VFDs) to operate with higher linearity and lower thermal overhead, effectively extending the usable range of connected industrial hardware without brute-force current injection.

🔌 For Data Center & Telco PSUs (Replacing "Power Electronics")

Solving the Thermal Bottleneck in Power Conversion In Data Center PSUs and Telco Rectifiers, density is everything. Yet, every switching event in a converter generates heat, and standard magnetic components are often the limiting factor in thermal management.

The DFS Advantage: By integrating directional flux control directly into the magnetic circuit, we alleviate the burden on the silicon switching stages. The Magnetic Transistor architecture reduces core losses and hysteresis heat at the source. The result is a power module that runs cooler and supports higher power densities—critical for next-gen hyperscale and 48VDC telecom architectures.

⚡ High-Power DC Fault Control — Reimagined

DC faults are brutal: no natural zero-crossing, explosive rise rates, and protection stacks that are slow, heavy, and expensive. Traditional breakers eat energy, take abuse, and sometimes still lose.

A magnetic transistor introduces something new to the toolbox. A directional magnetic pathway behaves like a check-valve for energy flow—favoring forward motion and resisting backflow. That opens the door for faster, cleaner fault-management strategies in DC grids, EV platforms, aerospace power buses, and other high-reliability domains.

☢️ For High-Reliability Computing (Magnetonics) 

Magnetonics: Robust Computation Beyond Silicon In environments where radiation, extreme heat, or electromagnetic interference cause silicon to fail, conventional electronics hit a hard wall. While photonics offers a path forward for data transmission, logic and computation require a robust, solid-state alternative.

The DFS Advantage: FluxWorx technology enables Magnetonics—a new class of logic gates where switching is physical, not electronic. Our Magnetic Transistor architecture is scalable down to the chip level, operating precisely at 5–10 Gauss. Because it utilizes standard ferromagnetic layers, it is compatible with current semiconductor FAB setups, allowing for the mass production of radiation-hardened logic processors that require no shielding—delivering reliable computation where silicon simply cannot survive.

🧲 IP Status: FluxWorx holds three provisional patents, filed March, May & July 2025, with a full PCT application scheduled for early 2026.