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Spectral energetic properties of the X-ray-boosted photoionization by an intense few-cycle laser

Spectral energetic properties of the X-ray-boosted photoionization by an intense few-cycle laser
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摘要 We report a discovery that an intense few-cycle laser pulse passing through gas leaves a fingerprint of its field en- velope on the photoelectron energy spectrum, which involves continuous X-ray radiations. The spectrum resulting from the photoionization processes includes significant quantum enhancement and interference and exhibits interesting energetic properties. The spectral cut-off energies reflect the strength, time, and interference of the laser field modulation on the photoelectron energy. These energetic properties suggest a new method for precise intense-laser-pulse measurement in situ. The method has the advantages of accuracy, simplicity, speed, and large dynamic ranges (up to many orders of intensity). We report a discovery that an intense few-cycle laser pulse passing through gas leaves a fingerprint of its field en- velope on the photoelectron energy spectrum, which involves continuous X-ray radiations. The spectrum resulting from the photoionization processes includes significant quantum enhancement and interference and exhibits interesting energetic properties. The spectral cut-off energies reflect the strength, time, and interference of the laser field modulation on the photoelectron energy. These energetic properties suggest a new method for precise intense-laser-pulse measurement in situ. The method has the advantages of accuracy, simplicity, speed, and large dynamic ranges (up to many orders of intensity).
出处 《Chinese Physics B》 SCIE EI CAS CSCD 2014年第7期444-451,共8页 中国物理B(英文版)
基金 supported by the National Natural Science Foundation of China(Grant No.11175010)
关键词 laser intensity pulse duration X-ray-boosted photoionization energetic properties of photoelec-tron energy spectrum laser intensity, pulse duration, X-ray-boosted photoionization, energetic properties of photoelec-tron energy spectrum
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