Development of the indirect‐drive approach to inertial confinement fusion and the target physics basis for ignition and gain
about
Experimental astrophysics with high power lasers and Z pinchesHigh-Gain Magnetized Inertial FusionA strong diffusive ion mode in dense ionized matter predicted by Langevin dynamicsFoam-induced smoothing studied through laser-driven shock wavesDynamics of converging laser-created plasmas in semicylindrical cavities studied using soft x-ray laser interferometry.Interaction of soft-x-ray thermal radiation with foam-layered targets.Equation-of-state measurements of polyimide at pressures up to 5.8 TPa using low-density foam with laser-driven shock waves.Experimental evidence of electric inhibition in fast electron penetration and of electric-field-limited fast electron transport in dense matterUse of low-density foams as pressure amplifiers in equation-of-state experiments with laser-driven shock waves.Observation of ion acoustic waves associated with plasma-induced incoherence of laser beams using Thomson scattering.Experimental measurements of deep directional columnar heating by laser-generated relativistic electrons at near-solid density.Ablation pressure scaling at short laser wavelength.Forward and backward stimulated Brillouin scattering of crossed laser beams.Stabilization of ablative Rayleigh-Taylor instability due to change of the Atwood number.Radiative ablation to low-Z matter.Influence of optical thickness and hot electrons on Rydberg spectra of Ne-like and F-like copper ions.Three-dimensional optical trajectory tracing and energy deposition of a laser beam in a laser-driven fusion.Absorption and hot electron production by high intensity femtosecond uv-laser pulses in solid targets.Indirect and direct laser driven shock waves and applications to copper equation of state measurements in the 10-40 Mbar pressure range.Propagation of a randomized 600-ps laser beam in a helium gas jet over long scale lengths.X-ray emission of a xenon gas jet plasma diagnosed with Thomson scattering.Generation of a double shock driven by laser.Enhancement of energetic electrons and protons by cone guiding of laser light.Quasi-isentropic compression by ablative laser loading: response of materials to dynamic loading on nanosecond time scales.Dopant radiative cooling effects in indirect-drive Ar-doped capsule implosion experiments.Influence of shock waves on laser-driven proton acceleration.Aperture tolerances for neutron-imaging systems in inertial confinement fusion.Unfolding core asymmetries with x-ray emission images in symmetry diagnostic experiments.Experimental characterization of picosecond laser interaction with solid targets.Investigation of the 2p_{32}-3d_{52} line emission of Au;{53+}-Au;{69+} for diagnosing high energy density plasmas.Phase-type quantum-dot-array diffraction grating.Preparation and characterization of planar deuterium cryotargets.Diagnostic development in precise opacity measurement of radiatively heated Al plasma on Shenguang II laser facility.Inverse bremsstrahlung absorption with nonlinear effects of high laser intensity and non-Maxwellian distribution.Quantum-dot-array diffraction grating with single order diffraction property for soft x-ray region.GEANT4 simulations of Cherenkov reaction history diagnostics.Backscatter measurements for NIF ignition targets (invited).Time- and spectrally resolved measurements of laser-driven hohlraum radiation.Creation and diagnosis of a solid-density plasma with an X-ray free-electron laser.Development of the large neutron imaging system for inertial confinement fusion experiments.
P2860
Q21563857-2F928FAF-3579-499E-AC4A-F3FE5AE46DB6Q27448637-F1567BDD-EA9F-425D-B139-46ED8ADFF453Q30363943-C23458FC-97B6-43E6-B71A-F3CE2EE835EBQ30642381-A2455363-2100-469E-921F-E6ED77ACC9E6Q30836812-DB5DC4E9-1C83-4717-B311-E497D5D5B265Q30844176-445C2C34-7731-48C0-8E22-538DE919264CQ30942613-C95E05CA-03F3-4B1C-9F8D-E9EACA0244C4Q30974283-FD673C14-71AD-4E0C-97D7-6F07E70ADD74Q30987300-24D9D407-78DB-41EB-B0EB-22C33EC6865AQ31033301-779FEAB8-31EC-49AA-AB8C-F7C792B22725Q31035259-4A39FA60-25B2-4898-A1AD-09B3A0AA094CQ31039438-4CB6908A-68D8-4632-B71F-179EFE4F4B71Q31049346-F9DC9636-BCD6-4120-8631-E5F1FE7B61DBQ31075733-C1032195-0590-41C3-8AD8-27BC5CF229FBQ31113459-0B2DA337-7AAF-4F02-B6AE-85B328B81D49Q31135062-E2378D79-A9AE-4B22-A3D7-00D7D1D848F8Q31902905-BEA91B12-2648-42BF-8AE9-AECE751DAD3DQ31910516-BB5913A4-BEFE-4550-9265-DCFED7317424Q31910571-7219515D-E216-45A9-AA27-EBF2E8FC3F95Q31949244-A36C66ED-D6FD-45C0-8B8E-1C0CDCB824B6Q32107552-7DEB9FEA-5087-4723-8A3E-171559C74906Q33209878-D15D54D4-2677-49CB-A4A0-C2BE07B2998AQ33215356-1875EC35-87BA-4872-AEB8-4D0038169EF0Q33221405-79D4FEE4-A1F8-45B7-9F5B-E4D7EF6C0DCFQ33234236-432C7118-12BE-4C4B-AE1A-9B21230ADE42Q33302315-8879A814-91B0-40EC-9569-8CDA85AFDCBAQ33322138-A98EBFB4-72D1-4CDE-81D9-2ECC111382C3Q33338929-C7A8820A-7DBF-46F9-ACE6-C8C0DF3AD5CDQ33353500-6243ACF8-BC32-4796-9C1D-ACC69D89D921Q33353525-B3077CB2-B6D5-4FEE-B1C3-9BFCE6144CC3Q33397494-1F588FF6-9D56-422B-9A80-387F0BF2BE34Q33424743-27124D80-1816-4F10-98CC-2BF3458B145CQ33436981-44E3D4AA-5DF1-41D9-A43D-E2128CB236AAQ33549299-D4528306-FA7F-4E36-8315-E7018A929384Q33650212-C62BB3CA-E954-414B-B749-76441D0310D0Q33733047-76C52D2B-8789-4E91-862F-77CD9A3C6113Q33733235-CBAB96FF-EA8C-4C37-BE44-2C1F3A5E4319Q34002762-EF393B05-22B1-4A23-851F-CFDB12921C18Q34141212-73591AB4-4720-411F-A8A2-B1810B0A1ACEQ34214445-0474B645-9854-4692-A137-B8CD0174293A
P2860
Development of the indirect‐drive approach to inertial confinement fusion and the target physics basis for ignition and gain
description
article
@en
im November 1995 veröffentlichter wissenschaftlicher Artikel
@de
wetenschappelijk artikel
@nl
наукова стаття, опублікована в листопаді 1995
@uk
ലേഖനം
@ml
name
Development of the indirect‐dr ...... cs basis for ignition and gain
@en
Development of the indirect‐dr ...... cs basis for ignition and gain
@nl
type
label
Development of the indirect‐dr ...... cs basis for ignition and gain
@en
Development of the indirect‐dr ...... cs basis for ignition and gain
@nl
prefLabel
Development of the indirect‐dr ...... cs basis for ignition and gain
@en
Development of the indirect‐dr ...... cs basis for ignition and gain
@nl
P356
P1433
P1476
Development of the indirect‐dr ...... cs basis for ignition and gain
@en
P2093
John Lindl
P304
P356
10.1063/1.871025
P577
1995-11-01T00:00:00Z