Compaction model validation under non-planar shock wave loading conditions

T. J. Voorhees; M. S. Freeman; C. L. Rousculp; D. A. Fredenburg; T. C. Carney; J. T. Bradley; P. M. Donovan; F. Fierro; J. R. Griego; J. C. Lamar; F. G. Mariam; L. P. Neukirch; D. M. Oro; A. R. Patten; R. B. Randolph; W. A. Reass; R. E. Reinovsky; A. Saunders; S. K. Sjue; Z. Tang; P. J. Turchi

doi:10.1063/12.0000980

Compaction model validation under non-planar shock wave loading conditions

T. J. Voorhees
, M. S. Freeman
, C. L. Rousculp
, D. A. Fredenburg
, T. C. Carney
, J. T. Bradley
, P. M. Donovan
, F. Fierro
, J. R. Griego
, J. C. Lamar
, F. G. Mariam
, L. P. Neukirch
, D. M. Oro
, A. R. Patten
, R. B. Randolph
, W. A. Reass
, R. E. Reinovsky
, A. Saunders
, S. K. Sjue
, Z. Tang

P. J. Turchi

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › peer-review

Abstract

Three continuum compaction models are calibrated to planar impact data for CeO₂ powder and used to predict the shock compaction behavior of CeO₂ powder under cylindrically converging shock wave loading. All experiments and computations are performed on powder compacts with an initial pressed density of 4.0 g/cm³ (56% TMD). A magnetically-driven, cylindrically-converging shock compaction experiment is computationally designed using the calibrated compaction models in the multi-physics code FLAG. Magnetohydrodynamic (MHD) calculations of impact conditions are performed using a calibrated circuit model in FLAG. The first cylindrical shock compaction experiment is executed using the mobile pulsed power driver PHELIX. In situ areal density measurements of the CeO₂ target assembly are performed during the compaction event with proton radiography. Calculations of the late time compaction response of the CeO₂ powder under PHELIX compression are greater than 90% accurate using the P-α compaction models calibrated under planar loading.

Original language	English
Title of host publication	Shock Compression of Condensed Matter - 2019
Subtitle of host publication	Proceedings of the Conference of the American Physical Society Topical Group on Shock Compression of Condensed Matter
Editors	J. Matthew D. Lane, Timothy C. Germann, Michael R. Armstrong, Ryan Wixom, David Damm, Joseph Zaug
Publisher	American Institute of Physics Inc.
ISBN (Electronic)	9780735440005
DOIs	https://doi.org/10.1063/12.0000980
State	Published - Nov 2 2020
Externally published	Yes
Event	21st Biennial American Physical Society Conference on Shock Compression of Condensed Matter, SCCM 2019 - Portland, United States Duration: Jun 16 2019 → Jun 21 2019

Publication series

Name	AIP Conference Proceedings
Volume	2272
ISSN (Print)	0094-243X
ISSN (Electronic)	1551-7616

Conference

Conference	21st Biennial American Physical Society Conference on Shock Compression of Condensed Matter, SCCM 2019
Country/Territory	United States
City	Portland
Period	06/16/19 → 06/21/19

Funding

This work was conducted at Los Alamos National Laboratory, an affirmative action/equal opportunity employer, which is managed by Triad National Security, LLC, for the National Nuclear Security Administration of the U.S. Department of Energy under contract Contract No. 89233218CNA000001. Financial and technical support is provided to the primary author through the Krell Institute Department of Energy National Nuclear Security Administration Laboratory Residency Graduate Fellowship (DOE NNSA LRGF) under grant DE-NA0003864.

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10.1063/12.0000980

Cite this

Voorhees, T. J., Freeman, M. S., Rousculp, C. L., Fredenburg, D. A., Carney, T. C., Bradley, J. T., Donovan, P. M., Fierro, F., Griego, J. R., Lamar, J. C., Mariam, F. G., Neukirch, L. P., Oro, D. M., Patten, A. R., Randolph, R. B., Reass, W. A., Reinovsky, R. E., Saunders, A., Sjue, S. K., ... Turchi, P. J. (2020). Compaction model validation under non-planar shock wave loading conditions. In J. M. D. Lane, T. C. Germann, M. R. Armstrong, R. Wixom, D. Damm, & J. Zaug (Eds.), Shock Compression of Condensed Matter - 2019: Proceedings of the Conference of the American Physical Society Topical Group on Shock Compression of Condensed Matter Article 110015 (AIP Conference Proceedings; Vol. 2272). American Institute of Physics Inc.. https://doi.org/10.1063/12.0000980

Voorhees, T. J. ; Freeman, M. S. ; Rousculp, C. L. et al. / Compaction model validation under non-planar shock wave loading conditions. Shock Compression of Condensed Matter - 2019: Proceedings of the Conference of the American Physical Society Topical Group on Shock Compression of Condensed Matter. editor / J. Matthew D. Lane ; Timothy C. Germann ; Michael R. Armstrong ; Ryan Wixom ; David Damm ; Joseph Zaug. American Institute of Physics Inc., 2020. (AIP Conference Proceedings).

@inproceedings{30fe6910431544cfa743903b64c7a99c,

title = "Compaction model validation under non-planar shock wave loading conditions",

abstract = "Three continuum compaction models are calibrated to planar impact data for CeO2 powder and used to predict the shock compaction behavior of CeO2 powder under cylindrically converging shock wave loading. All experiments and computations are performed on powder compacts with an initial pressed density of 4.0 g/cm3 (56\% TMD). A magnetically-driven, cylindrically-converging shock compaction experiment is computationally designed using the calibrated compaction models in the multi-physics code FLAG. Magnetohydrodynamic (MHD) calculations of impact conditions are performed using a calibrated circuit model in FLAG. The first cylindrical shock compaction experiment is executed using the mobile pulsed power driver PHELIX. In situ areal density measurements of the CeO2 target assembly are performed during the compaction event with proton radiography. Calculations of the late time compaction response of the CeO2 powder under PHELIX compression are greater than 90\% accurate using the P-α compaction models calibrated under planar loading.",

author = "Voorhees, \{T. J.\} and Freeman, \{M. S.\} and Rousculp, \{C. L.\} and Fredenburg, \{D. A.\} and Carney, \{T. C.\} and Bradley, \{J. T.\} and Donovan, \{P. M.\} and F. Fierro and Griego, \{J. R.\} and Lamar, \{J. C.\} and Mariam, \{F. G.\} and Neukirch, \{L. P.\} and Oro, \{D. M.\} and Patten, \{A. R.\} and Randolph, \{R. B.\} and Reass, \{W. A.\} and Reinovsky, \{R. E.\} and A. Saunders and Sjue, \{S. K.\} and Z. Tang and Turchi, \{P. J.\}",

note = "Publisher Copyright: {\textcopyright} 2020 American Institute of Physics Inc.. All rights reserved.; 21st Biennial American Physical Society Conference on Shock Compression of Condensed Matter, SCCM 2019 ; Conference date: 16-06-2019 Through 21-06-2019",

year = "2020",

month = nov,

day = "2",

doi = "10.1063/12.0000980",

language = "English",

series = "AIP Conference Proceedings",

publisher = "American Institute of Physics Inc.",

editor = "Lane, \{J. Matthew D.\} and Germann, \{Timothy C.\} and Armstrong, \{Michael R.\} and Ryan Wixom and David Damm and Joseph Zaug",

booktitle = "Shock Compression of Condensed Matter - 2019",

}

Voorhees, TJ, Freeman, MS, Rousculp, CL, Fredenburg, DA, Carney, TC, Bradley, JT, Donovan, PM, Fierro, F, Griego, JR, Lamar, JC, Mariam, FG, Neukirch, LP, Oro, DM, Patten, AR, Randolph, RB, Reass, WA, Reinovsky, RE, Saunders, A, Sjue, SK, Tang, Z & Turchi, PJ 2020, Compaction model validation under non-planar shock wave loading conditions. in JMD Lane, TC Germann, MR Armstrong, R Wixom, D Damm & J Zaug (eds), Shock Compression of Condensed Matter - 2019: Proceedings of the Conference of the American Physical Society Topical Group on Shock Compression of Condensed Matter., 110015, AIP Conference Proceedings, vol. 2272, American Institute of Physics Inc., 21st Biennial American Physical Society Conference on Shock Compression of Condensed Matter, SCCM 2019, Portland, United States, 06/16/19. https://doi.org/10.1063/12.0000980

Compaction model validation under non-planar shock wave loading conditions. / Voorhees, T. J.; Freeman, M. S.; Rousculp, C. L. et al.
Shock Compression of Condensed Matter - 2019: Proceedings of the Conference of the American Physical Society Topical Group on Shock Compression of Condensed Matter. ed. / J. Matthew D. Lane; Timothy C. Germann; Michael R. Armstrong; Ryan Wixom; David Damm; Joseph Zaug. American Institute of Physics Inc., 2020. 110015 (AIP Conference Proceedings; Vol. 2272).

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › peer-review

TY - GEN

T1 - Compaction model validation under non-planar shock wave loading conditions

AU - Voorhees, T. J.

AU - Freeman, M. S.

AU - Rousculp, C. L.

AU - Fredenburg, D. A.

AU - Carney, T. C.

AU - Bradley, J. T.

AU - Donovan, P. M.

AU - Fierro, F.

AU - Griego, J. R.

AU - Lamar, J. C.

AU - Mariam, F. G.

AU - Neukirch, L. P.

AU - Oro, D. M.

AU - Patten, A. R.

AU - Randolph, R. B.

AU - Reass, W. A.

AU - Reinovsky, R. E.

AU - Saunders, A.

AU - Sjue, S. K.

AU - Tang, Z.

AU - Turchi, P. J.

PY - 2020/11/2

Y1 - 2020/11/2

N2 - Three continuum compaction models are calibrated to planar impact data for CeO2 powder and used to predict the shock compaction behavior of CeO2 powder under cylindrically converging shock wave loading. All experiments and computations are performed on powder compacts with an initial pressed density of 4.0 g/cm3 (56% TMD). A magnetically-driven, cylindrically-converging shock compaction experiment is computationally designed using the calibrated compaction models in the multi-physics code FLAG. Magnetohydrodynamic (MHD) calculations of impact conditions are performed using a calibrated circuit model in FLAG. The first cylindrical shock compaction experiment is executed using the mobile pulsed power driver PHELIX. In situ areal density measurements of the CeO2 target assembly are performed during the compaction event with proton radiography. Calculations of the late time compaction response of the CeO2 powder under PHELIX compression are greater than 90% accurate using the P-α compaction models calibrated under planar loading.

AB - Three continuum compaction models are calibrated to planar impact data for CeO2 powder and used to predict the shock compaction behavior of CeO2 powder under cylindrically converging shock wave loading. All experiments and computations are performed on powder compacts with an initial pressed density of 4.0 g/cm3 (56% TMD). A magnetically-driven, cylindrically-converging shock compaction experiment is computationally designed using the calibrated compaction models in the multi-physics code FLAG. Magnetohydrodynamic (MHD) calculations of impact conditions are performed using a calibrated circuit model in FLAG. The first cylindrical shock compaction experiment is executed using the mobile pulsed power driver PHELIX. In situ areal density measurements of the CeO2 target assembly are performed during the compaction event with proton radiography. Calculations of the late time compaction response of the CeO2 powder under PHELIX compression are greater than 90% accurate using the P-α compaction models calibrated under planar loading.

UR - https://www.scopus.com/pages/publications/85096427674

U2 - 10.1063/12.0000980

DO - 10.1063/12.0000980

M3 - Conference contribution

AN - SCOPUS:85096427674

T3 - AIP Conference Proceedings

BT - Shock Compression of Condensed Matter - 2019

A2 - Lane, J. Matthew D.

A2 - Germann, Timothy C.

A2 - Armstrong, Michael R.

A2 - Wixom, Ryan

A2 - Damm, David

A2 - Zaug, Joseph

PB - American Institute of Physics Inc.

T2 - 21st Biennial American Physical Society Conference on Shock Compression of Condensed Matter, SCCM 2019

Y2 - 16 June 2019 through 21 June 2019

ER -

Voorhees TJ, Freeman MS, Rousculp CL, Fredenburg DA, Carney TC, Bradley JT et al. Compaction model validation under non-planar shock wave loading conditions. In Lane JMD, Germann TC, Armstrong MR, Wixom R, Damm D, Zaug J, editors, Shock Compression of Condensed Matter - 2019: Proceedings of the Conference of the American Physical Society Topical Group on Shock Compression of Condensed Matter. American Institute of Physics Inc. 2020. 110015. (AIP Conference Proceedings). doi: 10.1063/12.0000980

Compaction model validation under non-planar shock wave loading conditions

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