A D-shaped ring of fire
Deuterium–tritium plasma at 150 million °C circulates around the torus, never touching the wall.
- Core
- 150M °C
- Elongation
- 1.9
Helionovus designs and builds compact fusion power plants, perovskite-silicon solar, multi-day storage and grid sensing — engineered to work as one system.
Scroll for moreThe opportunity ahead
Global electricity demand is projected to grow from about 27,000 terawatt-hours in 2024 to about 51,000 by 2050. Meeting it takes energy that is abundant, firm and clean.
Four machines · one system
NOVA · Compact fusion
Deuterium–tritium plasma at 150 million °C circulates around the torus, never touching the wall.
REBCO superconducting tape reaches 20 tesla at the coil. Fusion power density scales with B⁴, so the machine shrinks dramatically.
The central solenoid drives 8.5 million amps through the plasma, twisting field lines into helices that hold it in place.
A FLiBe molten-salt blanket stops the neutrons, carries their heat to the turbines, and breeds tritium from lithium.
Field lines are diverted onto tungsten targets that handle heat fluxes above 10 MW/m² — more than a rocket nozzle.
NOVA-1 design model · real-time render
Every figure below is a measured result or a published physical limit. Our own targets are labelled as targets.
Core temperature a tokamak plasma needs — ten times the core of the Sun.
Plasma physicsField at the coil from REBCO high-temperature superconducting magnets.
Demonstrated, 2021Record efficiency for a perovskite-silicon tandem cell, beyond silicon's 33.7% limit.
Certified lab record, 2026Discharge duration of iron-air storage — long enough to carry a grid through a windless week.
UMBRA-L designA 1.68 eV perovskite cell on a silicon heterojunction splits sunlight at 740 nm — blue light converted on top, red and infrared below.
Perovskites are crystals printed from solution, thin enough to sit on a silicon wafer without replacing it.
Discharging, iron pellets take in oxygen and rust. Charging reverses it — slow, cheap and made of iron, water and air.
Line-mounted sensors measure conductor temperature, sag and wind to compute real capacity — typically 10–40% above static ratings.
A week on a solar-powered grid, with three overcast days in the middle. Switch storage on and watch the gaps close.
Illustrative hourly model: 1 GW average demand; 6.5 GWp solar; days 3–5 overcast at 15–25% of clear-sky output. Sodium-ion 1.5 GW / 6 GWh at 90% round-trip; iron-air 1.5 GW / 120 GWh at 45%, entering the week 85% charged.
A live digital twin of every site: weather-driven forecasts, dispatch that respects the grid's real limits, and a copilot that explains what changed.
Open HeliostatWe start from what physics allows — detailed-balance limits, plasma scaling laws, electrochemical potentials — and work back to what can be manufactured.
Every claim is tested on real hardware at meaningful scale: magnet coils at full field, modules on outdoor racks, storage on live feeders.
Bankable warranties, open data interfaces and designs certified to the standards utilities and regulators already use.
Research
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