Publications

Encyclopedia of Nuclear Energy

Gomez, Matthew R.; Sweeney, Mary A.; Ampleford, David A.; Slutz, Stephen A.; Rochau, G.A.; Sinars, Daniel S.

Abstract not provided.

AIP Conference Proceedings

Sweeney, Mary A.; Asay, James R.; Chhabildas, Lalit C.; Jeffery Lawrence, R.

Sandia National Laboratories' origin began during World War II. In July 1945 our forerunner, Sandia Base, was established to develop, test, and assemble non-nuclear parts of weapons. Shock wave research became essential in the 1950s with the advent of supersonic and exoatmospheric missiles. A major concern was effects of radiation-produced shocks on materials. As a result, we developed a wide range of experimental, diagnostic, modeling, and computational capabilities. These have addressed complex issues related to both weapons and basic science. Notable applications have included analysis of the cause of the turret explosion aboard the USS Iowa and predicting the response to the Shoemaker-Levy comet impact on Jupiter. Six decades later, our research encompasses all aspects of material science from high energy density physics to low density plasma surface interactions.

Asay, James R.; Chhabildas, Lalit C.; Lawrence, R.J.; Sweeney, Mary A.

Abstract not provided.

Sweeney, Mary A.

Abstract not provided.

Proposed for publication in 5th Special Issue of the IEEE Transactions on Plasma Science Z-Pinch Plasmas.

Cuneo, M.E.; Mazarakis, Michael G.; Lamppa, Derek C.; Kaye, Ronald J.; Nakhleh, Charles N.; Bailey, James E.; Hansen, Stephanie B.; McBride, Ryan D.; Herrmann, Mark H.; Lopez, A.; Peterson, Kyle J.; Ampleford, David A.; Jones, Michael J.; Savage, Mark E.; Jennings, Christopher A.; Martin, Matthew; Slutz, Stephen A.; Lemke, Raymond W.; Christenson, Peggy J.; Sweeney, Mary A.; Jones, Brent M.; Yu, Edmund Y.; McPherson, Leroy A.; Harding, Eric H.; Knapp, Patrick K.; Gomez, Matthew R.; Awe, Thomas J.; Stygar, William A.; Leeper, Ramon J.; Ruiz, Carlos L.; Chandler, Gordon A.; Mckenney, John M.; Owen, Albert C.; McKee, George R.; Matzen, M.K.; Leifeste, Gordon T.; Atherton, B.W.; Vesey, Roger A.; Smith, Ian C.; Geissel, Matthias G.; Rambo, Patrick K.; Sinars, Daniel S.; Sefkow, Adam B.; Rovang, Dean C.; Rochau, G.A.

Abstract not provided.

Defense Science Quarterly

Sweeney, Mary A.; Knudson, Marcus D.; Davis, Jean-Paul D.; LeChien, Keith R.; Savage, Mark E.; Lemke, Raymond W.; Stygar, William A.; Donovan, Guy L.

Abstract not provided.

Nuclear Instruments and Methods in Physics Research A

Olson, Craig L.; Renk, Timothy J.; Rochau, Gary E.; Sweeney, Mary A.; Olson, Craig L.

In Inertial Fusion Energy (IFE), Target Chamber Dynamics (TCD) is an integral part of the target chamber design and performance. TCD includes target output deposition of target x-rays, ions and neutrons in target chamber gases and structures, vaporization and melting of target chamber materials, radiation-hydrodynamics in target chamber vapors and gases, and chamber conditions at the time of target and beam injections. Pulsed power provides a unique environment for IFE-TCD validation experiments in two important ways: they do not require the very clean conditions which lasers need and they currently provide large x-ray and ion energies.