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Radiation Temperature Scaling Law for Gold Hohlraum Heated with Lasers at 0.35 mm Wavelength 被引量:4

Radiation Temperature Scaling Law for Gold Hohlraum Heated with Lasers at 0.35 mm Wavelength
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摘要 We have carried out the hohlraum experiments about radiation temperature scaling on the Shenguang-Ⅱ (SG- Ⅱ) laser facility with eight laser beams of 0.35#m, pulse duration of about 1.0ns and total energy of 2000J. The reradiated x-ray flux through the laser entrance hole was measured using a soft x-ray spectrometer. The measured peak radiation temperature was 170eV for the standard hohlraum and 150 eV for the 1.5-scaled one. We have derived the radiation temperature scaling law, in which the laser hohlraum coupling efficiency is included. With an appropriate coupling efficiency, the coincidences between experimental and scaling hohlraum radiation temperatures are rather good. We have carried out the hohlraum experiments about radiation temperature scaling on the Shenguang-Ⅱ (SG- Ⅱ) laser facility with eight laser beams of 0.35#m, pulse duration of about 1.0ns and total energy of 2000J. The reradiated x-ray flux through the laser entrance hole was measured using a soft x-ray spectrometer. The measured peak radiation temperature was 170eV for the standard hohlraum and 150 eV for the 1.5-scaled one. We have derived the radiation temperature scaling law, in which the laser hohlraum coupling efficiency is included. With an appropriate coupling efficiency, the coincidences between experimental and scaling hohlraum radiation temperatures are rather good.
出处 《Chinese Physics Letters》 SCIE CAS CSCD 2005年第9期2328-2331,共4页 中国物理快报(英文版)
关键词 INERTIAL CONFINEMENT FUSION INDIRECT-DRIVE TARGETS X-RAY CONFINEMENT COUPLING EFFICIENCY PHYSICS BASIS ENERGY-LOSS NOVA LASER FACILITY LIGHT IGNITION INERTIAL CONFINEMENT FUSION INDIRECT-DRIVE TARGETS X-RAY CONFINEMENT COUPLING EFFICIENCY PHYSICS BASIS ENERGY-LOSS NOVA LASER FACILITY LIGHT IGNITION
作者简介 Email: jiangshn@vip.sina.com
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参考文献24

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