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Remembering Charles E. Till
Charles E. Till
Charles E. Till, an ANS member since 1963 and Fellow since 1987, passed away on March 22 at the age of 89. He earned bachelor’s and master’s degrees from the University of Saskatchewan and a Ph.D. in nuclear engineering from Imperial College, University of London. Till initially worked for the Civilian Atomic Power Department of the Canadian General Electric Company, where he was the physicist in charge of the startup of the first prototype CANDU reactor in Canada.
Till joined Argonne National Laboratory in 1963 in the Applied Physics Division, where he worked as an experimentalist in the Fast Critical Experiments program. He then moved to additional positions of increasing responsibility, becoming division director in 1973. Under his leadership, the Applied Physics Division established itself as one of the elite reactor physics organizations in the world. Both the experimental (critical experiments and nuclear data measurements) and nuclear analysis methods work were internationally recognized. Till led Argonne’s participation in the International Nuclear Fuel Cycle Evaluation (INFCE), and he was the lead U.S. delegate to INFCE Working Group 5, Fast Breeders.
Sal B. Rodriguez, Jason Cook
Fusion Science and Technology | Volume 52 | Number 3 | October 2007 | Pages 499-505
Technical Paper | The Technology of Fusion Energy - Inertial Fusion Technology: Targets and Chambers | doi.org/10.13182/FST07-A1538
Articles are hosted by Taylor and Francis Online.
The Z-IFE (inertial fusion energy) plant is a unique, inertial confined, fusion energy concept in which high yield targets will be ignited to fusion, yielding brief energy bursts in the 3 to 20-gigajoule range. The fusion reaction yields an energetic burst that consists principally of neutrons, X rays, and charged particles. The X rays rapidly attenuate in matter, causing the material to expand rapidly, thus generating a strong shock wave. This shock wave must be mitigated if the Z-IFE chamber is to last for a period of 30 to 50 years.ALEGRA simulations were conducted for a hypothetical Z-IFE chamber filled with argon gas and ionized by an X ray source. The calculations employed a set of sophisticated models, including Saha ionization, XSN and CDF opacities, bremsstrahlung radiation, linearized diffusion of X ray photons for a blackbody, fully-coupled magnetohydrodynamic models, electron thermal conduction, Spitzer thermal conductivity with cold material interpolation, and Mie-Gruneisen EOS.In order to obtain confidence in the results, a laser experiment from UCSD was simulated. In the experiment, laser photons were used to ionize argon gas. The simulations showed that ALEGRA quite successfully calculated the measured temperature, level of ionization, and spatial evolution of the argon plasma.