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Bibliographic Details
Main Authors: Hennessey, Michael P., Wilson, Finnegan, Rabinowitz, Grace I., Sevcik, Max J., Tucker, Kadyn J., Kline, Dylan J., Amondson, David K., Springer, H. Keo, Sullivan, Kyle T., Eliasson, Veronica, Belof, Jonathan L.
Format: Preprint
Published: 2024
Subjects:
Online Access:https://arxiv.org/abs/2404.06640
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author Hennessey, Michael P.
Wilson, Finnegan
Rabinowitz, Grace I.
Sevcik, Max J.
Tucker, Kadyn J.
Kline, Dylan J.
Amondson, David K.
Springer, H. Keo
Sullivan, Kyle T.
Eliasson, Veronica
Belof, Jonathan L.
author_facet Hennessey, Michael P.
Wilson, Finnegan
Rabinowitz, Grace I.
Sevcik, Max J.
Tucker, Kadyn J.
Kline, Dylan J.
Amondson, David K.
Springer, H. Keo
Sullivan, Kyle T.
Eliasson, Veronica
Belof, Jonathan L.
contents In this work, the design and execution of an experiment with the goal of demonstrating control over the evolution of a copper jet is described. Simulations show that when using simple multi-material buffers placed between a copper target with a conical defect and a cylinder of high-explosive, a variety of jetting behaviors occur based on material placement, including both jet velocity augmentation and mitigation. A parameter sweep was performed to determine optimal buffer designs in two configurations. Experiments using the optimal buffer designs verified the effectiveness of the buffer and validated the modeling.
format Preprint
id arxiv_https___arxiv_org_abs_2404_06640
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Modification of Jet Velocities in an Explosively Loaded Copper Target with a Conical Defect
Hennessey, Michael P.
Wilson, Finnegan
Rabinowitz, Grace I.
Sevcik, Max J.
Tucker, Kadyn J.
Kline, Dylan J.
Amondson, David K.
Springer, H. Keo
Sullivan, Kyle T.
Eliasson, Veronica
Belof, Jonathan L.
Applied Physics
In this work, the design and execution of an experiment with the goal of demonstrating control over the evolution of a copper jet is described. Simulations show that when using simple multi-material buffers placed between a copper target with a conical defect and a cylinder of high-explosive, a variety of jetting behaviors occur based on material placement, including both jet velocity augmentation and mitigation. A parameter sweep was performed to determine optimal buffer designs in two configurations. Experiments using the optimal buffer designs verified the effectiveness of the buffer and validated the modeling.
title Modification of Jet Velocities in an Explosively Loaded Copper Target with a Conical Defect
topic Applied Physics
url https://arxiv.org/abs/2404.06640