D-D Capsule

Deuterium-Deuterium Capsule

If we can achieve a temperature of 600-700 million °C, an ion density of 10²⁴ ions/cm³, and a magnetic field strength of over 100 Tesla sustained for 10 ns, it is potentially possible to generate up to 516 MJ of energy based on secondary Deuterium-Tritium and Deuterium-He³ reactions.

D-T Capsule

Deuterium-Tritium Capsule

D-He3 Capsule

Deuterium-Helium3 Capsule

Capsule Reactor

Our Capsule Reactors utilize commercially available deuterium in a unique and efficient process. Tiny capsules, typically measuring just 2mm in diameter, are carefully filled with a mere 1 mg of deuterium. This concentrated deuterium is then subjected to immense pressure using whispering gallery mode laser radiation, compressing it to the extreme conditions required for fusion – temperatures exceeding 100 million degrees Celsius, densities ranging from 600 to 1000 grams per cubic centimeter, and particle densities reaching a staggering 10^24 particles per cubic centimeter. To ignite this fusion reaction, a precisely timed pulse of proton radiation is delivered to the capsule, triggering the fusion event. The resulting blast of energy is then directed into a swirling pool of lithium-lead eutectic melt, a specialized liquid alloy specifically designed to absorb and utilize the fusion energy.

Primary Reaction

The Capsule Reactors convert 1 mg of deuterium into 0.5 mg of helium-3 and 0.5 mg of tritium fusion fuel, producing enough energy to operate the reactors themselves and the lasers needed for the fusion process. This self-sufficiency eliminates the need for external energy sources.

With an unparalleled efficiency, the Capsule Reactors generate 43 grams of tritium and 43 grams of helium-3 fusion material per day from processing one capsule per second. This prodigious output is equivalent to the fuel requirements of at least two 50 MW energy-producing reactors.

We fill the capsules with our own production tritium (0,5 mg) and commercially available deuterium (0,5 mg), then with whispering gallery mode laser radiation heat and compress the deuterium-tritium mixture to a temperature of 100 million degrees Celsius and a density of 10^24 particles per cubic centimeter. The mixture is ignited with proton radiation, causing it to undergo nuclear fusion. The capsule is then shot into a lead melt that is circulating at high speed.

Secondary Reaction

A fusion explosion occurs in the melt every second or more, generating alpha radiation, protons and neutrons. The energy from a single microgram of fusion fuel is estimated to generate around 150 MJ of fusion energy. The Capsule Reactors and the lasers operate entirely on the fusion electrical energy produced, eliminating the need for external energy input.

The inexhaustibility of cheap raw materials and the energy self-sufficiency of the INFROTON® pulsed magneto-inertial fusion technology make our solution sustainable.