Marcus S. Day

发表

Analyzing and Tracking Burning Structures in Lean Premixed Hydrogen Flames

John B. Bell, Valerio Pascucci, Gunther H. Weber, 2010, IEEE Transactions on Visualization and Computer Graphics.

A Topological Framework for the Interactive Exploration of Large Scale Turbulent Combustion

John B. Bell, Valerio Pascucci, Gunther H. Weber, 2009, 2009 Fifth IEEE International Conference on e-Science.

Interactive Exploration and Analysis of Large-Scale Simulations Using Topology-Based Data Segmentation

John B. Bell, Valerio Pascucci, Gunther H. Weber, 2011, IEEE Transactions on Visualization and Computer Graphics.

Iterative Importance Sampling Algorithms for Parameter Estimation

Matthias Morzfeld, Ray W. Grout, George Shu Heng Pau, 2016, SIAM J. Sci. Comput..

An embedded boundary method for viscous, conducting compressible flow

Farrokh Najmabadi, Marcus S. Day, Zoran Dragojlovic, 2004, J. Comput. Phys..

Tools for simulation of laboratory-scale premixed turbulent flames

John B. Bell, Joseph F. Grcar, Marcus S. Day, 2005 .

The regime diagram for premixed flame kernel-vortex interactions—Revisited

Marcus S. Day, John B. Bell, Tarek Echekki, 2010 .

Numerical simulation of premixed turbulent methane combustion

Joseph F. Grcar, Marcus S. Day, John B. Bell, 2002 .

Numerical simulation of Lewis number effects on lean premixed turbulent flames

Robert K. Cheng, Marcus S. Day, John B. Bell, 2007 .

Characterization of low Lewis number flames

Marcus S. Day, John B. Bell, A. J. Aspden, 2011 .

Adaptive Methods for Simulation of Turbulent Combustion

Marcus S. Day, John B. Bell, J. Bell, 2011 .

A parallel adaptive projection method for low Mach number flows

Ann S. Almgren, Charles A. Rendleman, Marcus S. Day, 2002 .

Interaction of turblence and chemistry in a low-swirl burner

Robert K. Cheng, Marcus S. Day, John B. Bell, 2008 .

A taxonomy of integral reaction path analysis

Joseph F. Grcar, Marcus S. Day, John B. Bell, 2006 .

Lewis number effects in distributed flames

Marcus S. Day, John B. Bell, A. J. Aspden, 2011 .

Numerical simulation of low Mach number reacting flows

Michael J. Lijewski, Marcus S. Day, John B. Bell, 2007 .

Turbulence-chemistry interaction in lean premixed hydrogen combustion

Marcus S. Day, John B. Bell, A. J. Aspden, 2015 .

A conservative, thermodynamically consistent numerical approach for low Mach number combustion. Part I: Single-level integration

Andrew Nonaka, Marcus S. Day, John B. Bell, 2018 .

Three-dimensional direct numerical simulation of turbulent lean premixed methane combustion with detailed kinetics

Marcus S. Day, John B. Bell, A. J. Aspden, 2016 .

Concurrent implicit spectral deferred correction scheme for low-Mach number combustion with detailed chemistry

François P. Hamon, Michael L. Minion, Marcus S. Day, 2018, Combustion Theory and Modelling.

Numerical simulation of a laboratory-scale turbulent slot flame

James F. Driscoll, Michael J. Lijewski, Joseph F. Grcar, 2007 .

Simulations of shock-induced mixing& combustion of an acetylene cloud in a chamber

H. Reichenbach, Marcus S. Day, Allen L. Kuhl, 2001 .

Stochastic algorithms for the analysis of numerical flame simulations

Joseph F. Grcar, Marcus S. Day, John B. Bell, 2005 .

Conditional and opposed reaction path diagrams for the analysis of fluid-chemistry interactions

Joseph F. Grcar, Marcus S. Day, John B. Bell, 2003 .

Detailed modeling and laser-induced fluorescence imaging of nitric oxide in a NH(i)-seeded non-premixed methane/air flame

Peter Glarborg, Wolfgang G. Bessler, Joseph F. Grcar, 2002 .

Cellular burning in lean premixed turbulent hydrogen-air flames: Coupling experimental and computational analysis at the laboratory scale

Robert K. Cheng, Marcus S. Day, John B. Bell, 2009 .

Analysis of carbon chemistry in numerical simulations of vortex flame interaction

Michael J. Lijewski, Joseph F. Grcar, Marcus S. Day, 2003 .

Simulation of nitrogen emissions in a premixed hydrogen flame stabilized on a low swirl burner

Marcus S. Day, John B. Bell, M. J. Lijewski, 2013 .

Ammonia conversion and NOx formation in laminar coflowing nonpremixed methane-air flames

Peter Glarborg, Robert J. Kee, Joseph F. Grcar, 2002 .

A numerical model for trickle bed reactors

Phillip Colella, Marcus S. Day, William Y. Crutchfield, 2000 .

The Soret effect in naturally propagating, premixed, lean, hydrogen–air flames

Joseph F. Grcar, Marcus S. Day, John B. Bell, 2009 .

Adaptive numerical simulation of turbulent premixed combustion

Ann S. Almgren, Charles A. Rendleman, Marcus S. Day, 2001 .

Turbulence–flame interactions in lean premixed hydrogen: transition to the distributed burning regime

Marcus S. Day, John B. Bell, A. J. Aspden, 2011, Journal of Fluid Mechanics.

Adaptive low Mach number simulations of nuclear flame microphysics

Michael Zingale, Charles A. Rendleman, Marcus S. Day, 2004 .