First-principles transport modeling demonstrates significant synchrotron radiation reabsorption in deuterium–helium-3 mirror plasmas, indicating machine scale strongly dictates radiative losses.
A hot deuterium–helium-3 mirror loses more power to electron-cyclotron emission than to any other channel, and that loss pins the optimal electron temperature. A first-principles transport calculation gives a reabsorbed synchrotron loss of 1803 MW against a 2546 MW radiated scale — versus 919 MW (Trubnikov) and 66,677 MW optically-thin, a near-two-order model spread it collapses. The plasma is optically thick to n*≈10.4, and the loss fraction falls with machine size.
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Ford et al. (2026) studied this question.
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