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Bibliographic Details
Main Authors: Buczek, Sean M, Collins, Gilbert W, Arefiev, Alexey, Manuel, Mario J
Format: Preprint
Published: 2024
Subjects:
Online Access:https://arxiv.org/abs/2410.03135
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author Buczek, Sean M
Collins, Gilbert W
Arefiev, Alexey
Manuel, Mario J
author_facet Buczek, Sean M
Collins, Gilbert W
Arefiev, Alexey
Manuel, Mario J
contents Ultrafast laser systems, those with a pulse duration on the order of picoseconds or less, have enabled advancements in a wide variety of fields. Of particular interest to this work, these laser systems are the key component to many High Energy Density (HED) physics experiments. Despite this, previous studies on the shape of the laser pulse within the HED community have focused primarily on pulse duration due to the relationship between pulse duration and peak intensity, while leaving the femtosecond scale structure of the pulse shape largely unstudied. To broaden the variety of potential pulses available for study, a method of reliably adjusting the pulse shape at the femtosecond scale using sub-nanometer resolution Direct Phase Control has been developed. This paper examines the capabilities of this new method compared to more commonplace dispersion-based pulse shaping methods. It also will detail the capabilities of the core algorithm driving this technique when used in conjunction with the WIZZLER and DAZZLER instruments that are common in high intensity laser labs. Performance of the method and instrumentation is examined using data taken with a single shot FROG system. Finally, some discussion is given to possible applications on how the Direct Phase Control pulse shaping technique will be implemented in the future.
format Preprint
id arxiv_https___arxiv_org_abs_2410_03135
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle High-resolution direct phase control in the spectral domain in ultrashort pulse lasers for pulse-shaping applications
Buczek, Sean M
Collins, Gilbert W
Arefiev, Alexey
Manuel, Mario J
Optics
Ultrafast laser systems, those with a pulse duration on the order of picoseconds or less, have enabled advancements in a wide variety of fields. Of particular interest to this work, these laser systems are the key component to many High Energy Density (HED) physics experiments. Despite this, previous studies on the shape of the laser pulse within the HED community have focused primarily on pulse duration due to the relationship between pulse duration and peak intensity, while leaving the femtosecond scale structure of the pulse shape largely unstudied. To broaden the variety of potential pulses available for study, a method of reliably adjusting the pulse shape at the femtosecond scale using sub-nanometer resolution Direct Phase Control has been developed. This paper examines the capabilities of this new method compared to more commonplace dispersion-based pulse shaping methods. It also will detail the capabilities of the core algorithm driving this technique when used in conjunction with the WIZZLER and DAZZLER instruments that are common in high intensity laser labs. Performance of the method and instrumentation is examined using data taken with a single shot FROG system. Finally, some discussion is given to possible applications on how the Direct Phase Control pulse shaping technique will be implemented in the future.
title High-resolution direct phase control in the spectral domain in ultrashort pulse lasers for pulse-shaping applications
topic Optics
url https://arxiv.org/abs/2410.03135