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Texas opens $350M in nuclear funding
Three years ago, the Texas Public Utility Commission launched the Advanced Nuclear Reactor Working Group at the direction of Gov. Greg Abbott. One year later, that new group issued a report recommending several actions to the Texas legislature that could be taken to attract new nuclear projects to the state.
Included in those recommendations were the foundation of a nonregulatory entity to coordinate Texas’s “strategic nuclear vision” along with an advanced nuclear fund to help “overcome the funding valley project developers face” in the state.
M. Mordant
Nuclear Science and Engineering | Volume 92 | Number 2 | February 1986 | Pages 218-227
Technical Paper | doi.org/10.13182/NSE86-A18169
Articles are hosted by Taylor and Francis Online.
A type of “phase-space discontinuous diamond” difference scheme, or “phase-space linear discontinuous finite element” approximation, is implemented to solve the two-dimensional [(x-y) or (r-z)] neutron transport equation. The results obtained on some well-known transport benchmark problems are much more accurate than discrete ordinates solutions attained with spatial diamond differencing or discontinuous finite element approximations. Error studies show convergence to the phase-space fine-mesh limit solution with an approximate and convergence rate, at least in the case of rectangular cells on phase-space domain D × V. In addition, phase-space fine-mesh limit results have been estimated with the help of extrapolation procedures for some neutron transport benchmark problems. This phase-space linear discontinuous finite element approach can be easily enlarged to more general spaces.