Bulletin of the American Physical Society

Attosecond time delays near the photoionisation threshold of neon

Matteo Moioli, Kathryn R. Hamilton, H. Ahmadi, Dominik Ertel, Marvin Schmoll, Alexei N. Grum-Grzhimailo, Грызлова Елена Владимировна, Maria M. Popova, Maxim D. Kiselev, David Atri Schuller, Klaus Bartschat, Gavin Menning, R. Moshammer, Thomas Pfeifer, Claus Dieter Schröter, G. Sansone

Published Jun 3, 2021• 1 citation

OpenAlex

Related papers

Manipulation of autoionizing transition in atomic neon with isolated attosecond pulse

Hiroki Mashiko

The Japan Society of Applied PhysicsFeb 6, 20140 citations

Energy-dependent phases more fundamental than ''attosecond time delays''

Greg Armstrong, Brett D. Esry

Bulletin of the American Physical SocietyJun 8, 20170 citations

Attosecond Raman time-delay in resonant transitions of ions

Xiaowei Wang, Jing Zhao, Zengxiu Zhao

Chinese Science Bulletin (Chinese Version)Apr 24, 20240 citations

Resonant enhancement of single attosecond pulses by time-delayed control field

Wei-Chun Chu, Chii-Dong Lin

Bulletin of the American Physical SocietyNov 9, 20120 citations

Near-resonant four-wave mixing of attosecond extreme-ultraviolet pulses with near-infrared pulses in neon: Detection of electronic coherences

Wei Cao, Erika R. Warrick, Ashley P. Fidler +2 more

Physical Review AAug 8, 201648 citations

Attosecond Delays in Resonant Photoionization

A. Maquet

Bulletin of the American Physical SocietyJun 9, 20150 citations

Bulletin of the American Physical Society

Attosecond time delays near the photoionisation threshold of neon

Published Jun 3, 2021• 1 citation

OpenAlex

Related papers

Manipulation of autoionizing transition in atomic neon with isolated attosecond pulse

Hiroki Mashiko

The Japan Society of Applied PhysicsFeb 6, 20140 citations

Energy-dependent phases more fundamental than ''attosecond time delays''

Greg Armstrong, Brett D. Esry

Bulletin of the American Physical SocietyJun 8, 20170 citations

Attosecond Raman time-delay in resonant transitions of ions

Xiaowei Wang, Jing Zhao, Zengxiu Zhao

Chinese Science Bulletin (Chinese Version)Apr 24, 20240 citations

Resonant enhancement of single attosecond pulses by time-delayed control field

Wei-Chun Chu, Chii-Dong Lin

Bulletin of the American Physical SocietyNov 9, 20120 citations

Near-resonant four-wave mixing of attosecond extreme-ultraviolet pulses with near-infrared pulses in neon: Detection of electronic coherences

Wei Cao, Erika R. Warrick, Ashley P. Fidler +2 more

Coherent narrow-band extreme-ultraviolet (EUV) light is generated by a near-resonant four-wave mixing (FWM) process between attosecond pulse trains and near-infrared pulses in neon gas. The near-resonant FWM process involves one vacuum-ultraviolet (VUV) photon and two near-infrared (NIR) photons and produces new higher-energy frequency components corresponding to the $ns/nd$ to ground-state $(2{s}^{2}2{p}^{6})$ transitions in the neon atom. The EUV emission exhibits small angular divergence (2 mrad) and monotonically increasing intensity over a pressure range of 0.5--16 Torr, suggesting phase matching in the production of the narrow-bandwidth coherent EUV light. In addition, time-resolved scans of the NIR nonlinear mixing process reveal the detection of a persistent, ultrafast bound electronic wave packet based on a coherent superposition initiated by the VUV pulse in the neon atoms. This FWM process using attosecond pulses offers a means for both efficient narrow-band EUV source generation and time-resolved investigations of ultrafast dynamics.Coherent narrow-band extreme-ultraviolet (EUV) light is generated by a near-resonant four-wave mixing (FWM) process between attosecond pulse trains and near-infrared pulses in neon gas. The near-resonant FWM process involves one vacuum-ultraviolet (VUV) photon and two near-infrared (NIR) photons and produces new higher-energy frequency components corresponding to the $ns/nd$ to ground-state $(2{s}^{2}2{p}^{6})$ transitions in the neon atom. The EUV emission exhibits small angular divergence (2 mrad) and monotonically increasing intensity over a pressure range of 0.5--16 Torr, suggesting phase matching in the production of the narrow-bandwidth coherent EUV light. In addition, time-resolved scans of the NIR nonlinear mixing process reveal the detection of a persistent, ultrafast bound electronic wave packet based on a coherent superposition initiated by the VUV pulse in the neon atoms. This FWM process using attosecond pulses offers a means for both efficient narrow-band EUV source generation and time-resolved investigations of ultrafast dynamics.

Physical Review AAug 8, 201648 citations

Attosecond Delays in Resonant Photoionization

A. Maquet

Bulletin of the American Physical SocietyJun 9, 20150 citations

ns/nd

to ground-state

(2{s}^{2}2{p}^{6})

transitions in the neon atom. The EUV emission exhibits small angular divergence (2 mrad) and monotonically increasing intensity over a pressure range of 0.5--16 Torr, suggesting phase matching in the production of the narrow-bandwidth coherent EUV light. In addition, time-resolved scans of the NIR nonlinear mixing process reveal the detection of a persistent, ultrafast bound electronic wave packet based on a coherent superposition initiated by the VUV pulse in the neon atoms. This FWM process using attosecond pulses offers a means for both efficient narrow-band EUV source generation and time-resolved investigations of ultrafast dynamics.