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In a parametric study of reactor size DT targets driven by beams of heavy ions it was found that spark ignition and high energy gains can be achieved in four-layer single-shell targets irradiated by a nonshaped box pulse of 10 GeV 209 Bi ions. With an input energy of E in ≈ 6 MJ delivered in t in ⩽ 10 ns, one-dimensional energy gains of G ≳ 400 are possible in the optimum cases. It is shown that, to obtain spark ignition and high energy gain, two conditions must be necessarily met: (1) a high enough implosion velocity, U ∞ ≳ 6.2 × 10 7 Ω -1/2 cm/s, must be reached, and (2) the fuel compression must be accomplished with a low enough pusher/fuel mass ratio, M p /M DT ≲ 5-7 (Ω is a dimensionless parameter determined by the density distribution in the compressed target core). It was found also that when the ⟨ρΔr⟩ of the cold part of the compressed fuel is ≃ 2-5 g/cm 2 , the main portion of the fuel is ignited owing to the heating by 14 MeV neutrons emitted from the central hot region
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M. M. Basko (1992) studied this question.
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