Where could your technology contribute?

From HTS coil manufacturing through HARUKA integrated demonstration to the KANATA electricity concept. Distinguishing verified stages from future objectives in the helical approach.

FRCをパルス圧縮し、電磁誘導で電力を直接回収する炉開発企業。PolarisのD–T実験とOrionの整備を進めるが、正味発電とD–He3燃料の商用化は引き続き検証課題。

Plasma energy gain Q and net electricity after subtracting the entire plant's power consumption are different metrics. Check the measurement boundary before comparing numbers.

中性粒子ビームでFRCの形成・加熱・維持を狙う炉開発企業。Normの成果を受けDa Vinciへ進む。水素・ホウ素を追求しつつ、2026年には将来のヘリウム3供給の選択肢も発表した。

How do external coils confine a hot plasma? Explore stellarator magnetic fields, the differences between LHD and W7-X, long-pulse results and the engineering challenges on the path to fusion power.

A tokamak uses magnetic fields to confine hot plasma in a toroidal vessel. Integrated design covering heating, control and materials is essential.

In a D–T fusion reactor, the blanket receives neutron energy as heat and also supports tritium breeding. Heat extraction and material durability are crucial.

Lasers compress and heat tiny fuel targets. For power generation, integrating high-repetition-rate irradiation with target supply is a challenge.

From heating-equipment deliveries to integrated fuel-cycle and heat-recovery testing: what UNITY sites test and how the company connects reactor developers with manufacturers.

Fusion fuel does not simply pass through a reactor once. Understand the separate tasks of recovering unburned fuel from a D–T system’s exhaust, replacing consumed tritium, and preparing fuel for reuse.

Magnet technology for producing strong magnetic fields. CFS uses REBCO high-temperature superconducting materials in more compact high-field tokamaks.