Physical Review Letters · 1984 · 708 citations · 10 references
Natural SciencesPhysicsOpticsPlasma PhysicsRadiation PhysicsLaser OpticsLaser PhysicsLaser-plasma InteractionsPlasma InstabilitiesPlasma SourcesPlasma WavesHarmonic Generation In PlasmasHigh-harmonic GenerationHigh-order Harmonic GenerationHigh-power LasersLasersParticle Acceleration In PlasmasPlasma Wave Excitation
Short‑wavelength random‑phased beam irradiation is promising for compression. The method converts a coherent laser into a random‑phased wave to control the target intensity profile. Random‑phased waves uniformly accelerate planar and spherical targets, suppress small‑scale intensity nonuniformities, and weakly excite n_c/4 plasma waves as shown by 3/2‑harmonic emission.
By converting a coherent wave to a random-phased wave, the intensity profile on a target becomes easily controllable. Planar as well as spherical targets were irradiated for the first time by the random-phased wave. The targets were uniformly accelerated without being affected by the small-scale intensity nonuniformities. The $\frac{3}{2}$-harmonic emission shows that the plasma waves at $\frac{{n}_{c}}{4}$ are only weakly excited in a spherical plasma. Irradiation with short-wavelength, random-phased beams will be suitable for compression.
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Periodic breakup of optical beams due to self-focusing
A. J. Campillo, S. L. Shapiro, B. R. Suydam · Applied Physics Letters · 1973 · 242 citations
Critical elements of high gain laser fusion
S. E. Bodner · Journal of Fusion Energy · 1981 · 224 citations · Full text
W. C. Mead, E. M. Campbell, K. G. Estabrook et al. · Physical Review Letters · 1981 · 119 citations