Institution
Sandia National Laboratories
Facility•Livermore, California, United States•
About: Sandia National Laboratories is a facility organization based out in Livermore, California, United States. It is known for research contribution in the topics: Laser & Combustion. The organization has 21501 authors who have published 46724 publications receiving 1484388 citations. The organization is also known as: SNL & Sandia National Labs.
Topics: Laser, Combustion, Thin film, Hydrogen, Finite element method
Papers published on a yearly basis
Papers
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TL;DR: In this article, a global finite difference approach is used in which the nonlinear difference equations are solved by a damped-modified Newton method, and an assumed temperature profile helps to generate a converged numerical solution on an initial coarse grid.
231 citations
TL;DR: The Advanced High-Temperature Reactor (AHTR) is a new reactor concept designed to provide very high-temperature (750 to 1000°C) heat to enable efficient low-cost thermochemical processing.
Abstract: The molten-salt-cooled Advanced High-Temperature Reactor (AHTR) is a new reactor concept designed to provide very high-temperature (750 to 1000°C) heat to enable efficient low-cost thermochemical p...
231 citations
230 citations
TL;DR: Curran et al. as mentioned in this paper investigated the effect of thermal stratification on the ignition of a lean homogeneous n -heptane/air mixture at constant volume and high pressure.
230 citations
TL;DR: In this paper, the authors compare three techniques for coupling multiphase porous flow and geomechanics and highlight the similarities and differences in the techniques, and compare problems for single-phase and threephase flow problems involving poroelastic deformations.
Abstract: Summary This paper compares three techniques for coupling multiphase porous flow and geomechanics. Sample simulations are presented to highlight the similarities and differences in the techniques. One technique uses an explicit algorithm to couple porous flow and displacements in which flow calculations are performed every timestep and displacements are calculated only during selected timesteps. A second technique uses an iteratively coupled algorithm in which flow calculations and displacement calculations are performed sequentially for the nonlinear iterations during each timestep. The third technique uses a fully coupled approach in which the program’s linear solver must solve simultaneously for fluid-flow variables and displacement variables. The techniques for coupling porous flow with displacements are described and comparison problems are presented for single-phase and threephase flow problems involving poroelastic deformations. All problems in this paper are described in detail, so the results presented here may be used for comparison with other geomechanical/ porous-flow simulators.
230 citations
Authors
Showing all 21652 results
| Name | H-index | Papers | Citations |
|---|---|---|---|
| Lily Yeh Jan | 162 | 467 | 73655 |
| Jongmin Lee | 150 | 2257 | 134772 |
| Jun Liu | 138 | 616 | 77099 |
| Gerbrand Ceder | 137 | 682 | 76398 |
| Kevin M. Smith | 114 | 1711 | 78470 |
| Henry F. Schaefer | 111 | 1611 | 68695 |
| Thomas Bein | 109 | 677 | 42800 |
| David Chandler | 107 | 424 | 52396 |
| Stephen J. Pearton | 104 | 1913 | 58669 |
| Harold G. Craighead | 101 | 569 | 40357 |
| Edward Ott | 101 | 669 | 44649 |
| S. Das Sarma | 100 | 951 | 58803 |
| Richard M. Crooks | 97 | 419 | 31105 |
| David W. Murray | 97 | 699 | 43372 |
| Alán Aspuru-Guzik | 97 | 628 | 44939 |