Shocking a Shock Wave for Nonlinear Summation of GPa Pressures

Fuente: arXiv
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Autori principali: Lem, Jet, Kai, Yun, Vassaux, Maxime, Kooi, Steven E., Nelson, Keith A., Pezeril, Thomas
Natura: Preprint
Pubblicazione: 2025
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author Lem, Jet
Kai, Yun
Vassaux, Maxime
Kooi, Steven E.
Nelson, Keith A.
Pezeril, Thomas
author_facet Lem, Jet
Kai, Yun
Vassaux, Maxime
Kooi, Steven E.
Nelson, Keith A.
Pezeril, Thomas
contents Exploring shock-shock interactions has been limited by experimental constraints, particularly in laser-induced shock experiments due to specialized equipment requirements. Herein, we introduce a tabletop approach to systematically investigate the excitation and superposition of dual laser-induced shock waves in water. Utilizing two laser pulses, spatio-temporally separated and focused into a confined water layer, we identify the optimal superposition leading to the highest combined shock pressure. Our results demonstrate that combining two shock waves each of $\sim$0.6~GPa pressure yields an overall shock pressure of $\sim$3~GPa. Our findings, suggesting an inherent nonlinear summation from the laser excitation process itself and highlights a new pathway for energy-efficient laser shock wave excitation.
format Preprint
id arxiv_https___arxiv_org_abs_2504_00326
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Shocking a Shock Wave for Nonlinear Summation of GPa Pressures
Lem, Jet
Kai, Yun
Vassaux, Maxime
Kooi, Steven E.
Nelson, Keith A.
Pezeril, Thomas
Applied Physics
Fluid Dynamics
Exploring shock-shock interactions has been limited by experimental constraints, particularly in laser-induced shock experiments due to specialized equipment requirements. Herein, we introduce a tabletop approach to systematically investigate the excitation and superposition of dual laser-induced shock waves in water. Utilizing two laser pulses, spatio-temporally separated and focused into a confined water layer, we identify the optimal superposition leading to the highest combined shock pressure. Our results demonstrate that combining two shock waves each of $\sim$0.6~GPa pressure yields an overall shock pressure of $\sim$3~GPa. Our findings, suggesting an inherent nonlinear summation from the laser excitation process itself and highlights a new pathway for energy-efficient laser shock wave excitation.
title Shocking a Shock Wave for Nonlinear Summation of GPa Pressures
topic Applied Physics
Fluid Dynamics
url https://arxiv.org/abs/2504.00326