I managed the engineering team and product development for NeoPulse® AI Studio and NeoPulse® Query Runtime. I also helped customers use the NeoPulse® Framework to develop custom AI models using their own data and deploy those models to production both on-premise and in the cloud.In addition, I collaborated on recently published research.

I managed the Machine Learning group, as well as contributed to product development for NeoPulse® AI Studio and NeoPulse® Query Runtime.In addition, I developed custom AI models for clients.

I constructed state of the art AI Models to solve real-world business problems for our clients. I also built mobile applications to call artificial intelligence APIs, and implemented advanced physics algorithms for virtual reality applications.

Theoretical Division: Physics and Chemistry of MaterialsI studied actinide salts, metal-insulator transitions, and new magnetic materials using density functional theory and projected wave function techniques. I used GAUSSIAN, VASP, or ELK for electronic structure calculations, and developed algorithms and analysis tools using FORTRAN, Python, MATLAB, and Mathematica. I enjoyed successful collaborations with experimental colleagues in both actinide and magnetic material development and… Show more Theoretical Division: Physics and Chemistry of MaterialsI studied actinide salts, metal-insulator transitions, and new magnetic materials using density functional theory and projected wave function techniques. I used GAUSSIAN, VASP, or ELK for electronic structure calculations, and developed algorithms and analysis tools using FORTRAN, Python, MATLAB, and Mathematica. I enjoyed successful collaborations with experimental colleagues in both actinide and magnetic material development and characterization.Invited Presentations:"Candidate Materials for Direct Observation of the 229mTh->229gTh Nuclear Transition."MIT Lincoln Laboratories, December 16, 2014."Investigation of Thorium Salts as Candidate Materials for Direct Observation of the 229mTh->229gTh Nuclear Transition."Gordon Research Seminar on Computational Chemistry, July 19, 2014."Material Properties of Thorium Salts Predicted by Screened Hybrid DFT and G0W0."Seaborg Actinide Science Lecture, April 23, 2014."On Pair Functions for Strong Correlations." International Conference for Small Science, December 16, 2013.Contributed Talks:"Electronic Structure of Thorium Salts Predicted by G0W0 and Screened Hybrid DFT"APS March Meeting, 2014. Show less

I contributed to the development of density matrix functionals for electronic structure and used density functional theory to study ultra-thin films for nano-transistor applications. I performed electronic structure calculations using GAUSSIAN and algorithms were developed using Mathematica, MATLAB and FORTRAN.Invited Presentations:“Applying Projected Quasiparticle Theory to the Pairing Hamiltonian.”Los Alamos National Laboratory, October 20, 2011.“Strong… Show more I contributed to the development of density matrix functionals for electronic structure and used density functional theory to study ultra-thin films for nano-transistor applications. I performed electronic structure calculations using GAUSSIAN and algorithms were developed using Mathematica, MATLAB and FORTRAN.Invited Presentations:“Applying Projected Quasiparticle Theory to the Pairing Hamiltonian.”Los Alamos National Laboratory, October 20, 2011.“Strong Correlations with Constrained Pairing Mean-Field Theory.”IPAM, University of California, Los Angeles, April 26, 2011.Contributed Talks:“Triplet Pairing and Odd-Electron Densities in Constrained Pairing Mean Field Theory.”APS March Meeting, 2011 Show less

Research focused on emergent phenomenon in classical and quantum systems. In the classical regime, I developed a dynamic model for the spatio-temporal protein oscillations of the minCDE protein system in E. coli which explained multi-node oscillations of this rudimentary biological clock in different mutant strains. Numerical solutions were obtained using in house code written in C; data analysis was performed using MATLAB. In the quantum regime, I examined the effects of spin polarization on… Show more Research focused on emergent phenomenon in classical and quantum systems. In the classical regime, I developed a dynamic model for the spatio-temporal protein oscillations of the minCDE protein system in E. coli which explained multi-node oscillations of this rudimentary biological clock in different mutant strains. Numerical solutions were obtained using in house code written in C; data analysis was performed using MATLAB. In the quantum regime, I examined the effects of spin polarization on the phase diagram for superfluid 3He. Calculations and data analysis were performed using Mathematica, as well as some in house code written in FORTRAN.Invited Presentations:“Arbitrarily Polarized Fermi Systems.” Rice University, August 25, 2009.“Cellular Dynamics in E. coli: Effects on Min-protein Oscillations.” Kent State University, October 29, 2009.Contributed Talks:"Effects of Cell Growth on Min-Protein Oscillations in E. coli.” APS March Meeting, 2010“Modeling the Effect of Dynamical Changes of Cell Geometry on MinCDE Oscillations During Cell Division in E. coli.”APS March Meeting, 2007 Show less

Assistant: Graduate Condensed Matter PhysicsSupervised Recitations: University Physics I and II (calculus based)Supervised Laboratory: University Physics I and II (calculus based)Supervised Recitations: College Physics I and II (algebra based)Supervised Laboratory: College Physics I and II (algebra based)Assistant: Seven Ideas that Shook the Universe

Taught Algebra I (30 students)

Taught College and University Physics I, II, and III (~250 students per class)Managed Teaching and Laboratory Assistants (12)

Supervised Laboratory: University Physics I, II, and III (calculus based)Supervised Tutorial Sessions: University Physics I, II, and III (calculus based)Supervised Laboratory: College Physics I, II, and III (algebra based)Supervised Tutorial Sessions: College Physics I, II, and III (algebra based)