- Continued development of the novel, spatially high order, fully coupled numerical method for chemically reacting flows that was begun during my doctoral research.- Led or consulted on a wide-range of other projects in numerical combustion, relating to the application of high order methods and/or implicit solvers to steady and unsteady problems involving Arrhenius chemistry, detailed mass and energy transport, and radiation with reabsorption effects in a variety of gas- and solid-phase… Show more - Continued development of the novel, spatially high order, fully coupled numerical method for chemically reacting flows that was begun during my doctoral research.- Led or consulted on a wide-range of other projects in numerical combustion, relating to the application of high order methods and/or implicit solvers to steady and unsteady problems involving Arrhenius chemistry, detailed mass and energy transport, and radiation with reabsorption effects in a variety of gas- and solid-phase flame configurations.- Spearheaded the writing of 2 grant proposals and 2 additional white papers for several federal funding agencies.- Currently designing a strategy for computing multidimensional sooting jet diffusion flames in which the solution is constrained by (incomplete) experimental data, thus circumventing a number of thorny computational and modeling issues. Show less

Instructor for ENAS 194a (Ordinary and Partial Differential Equations with Applications):Designed and taught the key differential equations course required of all Yale undergraduate engineering majors, managing 7 teaching assistants.and a total of 100+ students over three successive Fall terms.