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PLASMION AI
Autonomous Neural Magnetohydrodynamics & Tokamak Confinement
Unlocking commercial burning plasma (Q > 10) by solving real-time magnetohydrodynamic instabilities through continuous Neural-PDE foundation models operating at 200 kHz.
The Holy Grail of Baseload Energy
Global electricity demand is skyrocketing due to datacenters, electrification, and industrial reshoring.
Energy Density Advantage
1 gram of Deuterium-Tritium fuel produces the thermal equivalent of 10 metric tons of coal with zero greenhouse emissions.
Target Plant Market
Projected commercial fusion reactor deployments by 2038 across utility grids, hyperscalers, and sovereign energy systems.
The Stability Wall
Private fusion startups have raised over $7.1B, but every reactor faces the same physics roadblock: nonlinear plasma disruptions.
Why Existing Control Systems Fail
Plasma inside a magnetic tokamak is the most turbulent, unstable fluid in the known universe.
The Thermal Quench Problem
When plasma parameters push toward burning regimes (Q > 5), turbulent flutes and magnetic islands grow nonlinearly. In 5 milliseconds, 100 megajoules of heat crashes into the vacuum chamber walls, melting divertors and requiring months of downtime.
The HPC Latency Bottleneck
Numerical physics codes (JOREK, NIMROD, GYRO) take 50,000 CPU core-hours to simulate a single second of plasma. They cannot be used in active real-time loops. Tokamak operators are left using rudimentary linear PID feedback controllers that diverge immediately.
Continuous Fourier Neural Operators for MHD
Bridging ab-initio magnetohydrodynamics with microsecond-latency tensor inference.
Mesh-Free Resolution
Learns infinite-dimensional mappings between function spaces. Infers continuous magnetic field vectors at any arbitrary resolution without re-meshing.
Physics Invariance Constraints
Enforces Gauss's Law for Magnetism (∇·B = 0) and magnetic helicity conservation directly inside the loss manifold, guaranteeing physically valid outputs.
100,000x Speedup
Compresses supercomputer-scale non-linear magneto-fluid dynamics into sub-5-microsecond tensor matrix evaluations on dedicated accelerators.
200 kHz Hardware-In-The-Loop Execution
Direct PCIe and deterministic optic interfaces between tensor clusters and high-temperature superconducting coils.
Multi-Device Experimental Verification
Evaluated across historical and active discharge datasets from leading international magnetic confinement facilities.
An $84 Billion Addressable Market
Every commercial fusion reactor requires high-assurance autonomous plasma stabilization.
Simulation licenses, digital twins, and pre-commercial prototype control software for 40+ private fusion ventures globally.
Pilot power plants and pilot grid demonstrations requiring licensed high-assurance embedded plasma runtime kernels.
Full-scale multi-gigawatt baseload power plant deployment royalty streams and ongoing live telemetry telemetry optimization.
High-Margin Software & Firmware Model
Pure software economics applied to multi-billion-dollar energy infrastructure.
$500K - $2M/year per reactor team for our cloud-native Neural MHD discharge simulator and synthetic experiment generator.
$5M - $12M upfront licensing fee + $1M/yr maintenance for deterministic runtime control firmware embedded on reactor FPGA clusters.
1.5% to 2.5% MWh thermal uptime royalty on commercial electricity produced by reactors utilizing Plasmion stabilization kernels.
World-Class Founders & Physicists
Deep technical roots in plasma science, supercomputing, and clean tech venture building.
Ph.D. Plasma Physics (MIT / PPPL). Max Planck Institute.
Ph.D. Imperial College. 12 yrs ITER Theory & Modelling.
M.S. Stanford. Ex-Argonne National Lab Petascale Engineer.
MBA Harvard. Nuclear Engineering B.S. Energy infrastructure.
Capital Allocation & Compute Scaling
Scaling our petascale tensor cluster to simulate 100M+ discharges and sign 3 commercial reactor pilots.
Key Milestones (Next 18 Months)
- Scale Plasmion-1 to 45B parameters across high-memory tensor nodes
- Deploy live closed-loop control on first partner private spherical tokamak
- Achieve < 2.5 µs deterministic control loop latency certification