D. Pope

发表

Student-Designed Projects in Computational Fluid Dynamics: Challenges and Results

D. Pope, 2020 .

Surface tension effects during low-Reynolds-number methanol droplet combustion

G. Gogos, V. Raghavan, D. Pope, 2006 .

Numerical Modeling of Steady BurningCharacteristics of Spherical EthanolParticles in a Spray Environment

G. Gogos, V. Raghavan, V. Sahu, 2011 .

Numerical simulation of fuel droplet extinction due to forced convection

George Gogos, Daniel N. Pope, G. Gogos, 2005 .

Gas-phase entropy generation during transient methanol droplet combustion

G. Gogos, V. Raghavan, D. Pope, 2010 .

Effect of Non-Luminous Flame Radiation During Methanol Droplet Combustion

G. Gogos, V. Raghavan, D. Pope, 2008 .

Effects of forced convection and surface tension during methanol droplet combustion

G. Gogos, V. Raghavan, D. Pope, 2006 .

A New Multicomponent Diffusion Formulation for the Finite-Volume Method: Application to Convective Droplet Combustion

G. Gogos, D. Pope, 2005 .

Combustion of Moving Droplets and Suspended Droplets: Transient Numerical Results

G. Gogos, D. Pope, D. Howard, 2005 .

A New Multicomponent Diffusion Formulation for the Finite-Volume Method

G. Gogos, D. Pope, 2004 .

Effects of the ambient temperature and initial diameter in droplet combustion

G. Gogos, D. Pope, Inkant Awasthi, 2014 .

Two-phase modeling of evaporation characteristics of blended methanol–ethanol droplets

G. Gogos, V. Raghavan, D. Pope, 2013 .

Effects of gravity and ambient pressure on liquid fuel droplet evaporation

George Gogos, Daniel N. Pope, G. Gogos, 2003 .

Raghavan, V., Pope, D.N., Howard, D. and Gogos, G. “Surface Tension Effects during Low Reynolds Number Methanol Droplet Combustion,” Combustion and Flame, accepted (2006)

G. Gogos, Raghavan Vasudevan, D. Pope, 2006 .