Magnetic Field System

[ How It Works ]

How the Magnetic Field System Works

FM Integration’s fusion architecture incorporates a Magnetic Field System that creates the stabilizing magnetic environment required to confine and shape the plasma. This system surrounds the vacuum chamber and works in coordination with the structural and stabilization layers to support controlled fusion conditions.

[ More Formal / Technical Tone ]

While the specific geometry, materials, and field-control mechanisms remain confidential, the magnetic system can be understood at a high level as follows:

1. Toroidal Magnetic Field Coils:

These coils generate a magnetic field that wraps around the central chamber in a continuous loop. Their purpose is to guide plasma motion, help maintain confinement, and reduce direct interaction with structural surfaces.

2. Poloidal Field Coils:

These coils create secondary magnetic fields that shape and stabilize the plasma vertically and radially. Together, the toroidal and poloidal fields maintain symmetry, suppress instabilities, and fine-tune plasma positioning.

3.  Integrated Field Control Layer:

The magnetic system includes control elements that adjust field conditions during operation. These adjustments occur away from the plasma and are designed to improve stability, refine positioning, and support smooth operation.

[ How It Works ]

Why It Matters

The Magnetic Field System is essential for stable fusion performance. In FMI’s architecture, it helps:

[ How It Works ]

What We Don’t Disclose:

To protect intellectual property, FMI does not reveal:

[ Climate Solutions ]

Our Summary:

The Magnetic Field System surrounds the chamber with shaped magnetic fields that confine and stabilize the plasma. It operates in harmony with FMI’s structural and protective layers to support safe, controlled, long-duration fusion operation—while all technical specifics remain confidential.