Skip to content
Technology How it works Breeder — Hyperion Burner — Aegis Burner — MetroVolt AI-Native Architecture Magnets Fuel cycle Safety Roadmap
Solutions AI & Data Centers Defense & Government Grid & Baseload Neutron Detection Quantum
Learn Technical Library
Proof Publications Whitepapers Technical Library Open Science & Reproducibility The Honest Gates
Company About / Mission Leadership Environment Health & Safety Investors Careers Press Contact
3D Model
Technical LibraryPhysics & Fusion Science
Technical

Charged-Particle Self-Heating

How fusion's charged products help keep the plasma hot.

Physics & Fusion ScienceUpdated 2026-08-11
Effect
Internal heating

The charged products of fusion — helium in D–T, protons and helium in D–³He — stay confined and deposit their energy back into the plasma, providing self-heating. In a driven machine this supplements, rather than replaces, external heating.

It is why keeping fast ions confined matters for the energy balance.

Common questions

What is charged-particle self-heating?

Confined fusion products (like the D–T helium nucleus) deposit their energy back into the plasma, helping sustain its temperature. Strong self-heating is what makes ignition possible.

Do Kronos machines rely on it?

Not dominantly — both are driven designs whose power tracks the external heating, a deliberately conservative posture that keeps them controllable rather than depending on self-heating running away.

← PreviousCatalysed Deuterium–Deuterium (D–D)Next →Current Diffusion
Content reviewed August 2026 · design-and-simulation stage