CV

10+ years of experience in developing highly scalable software using C++, message-passing-interface (MPI), and GPUs for diverse scientific applications:

• Specialization in hypersonic flows during Ph.D. projects.
• Focus on nanoelectronics while contributing to open-source software during postdoctoral work.

Experience in working on diverse modeling techniques, including:

• Specialization in kinetic methods for high-temperature molecular gas transport.
• Expertise in matrix-based algorithms for quantum transport in nanomaterials.
• Experience in linear stability analyses of compressible flows.

7+ years of experience contributing to collaborative, interdisciplinary projects.

Postdoctoral Scholar
Center for Computational Sciences and Engineering (CCSE)

• Interdisciplinary collaborations through DOE-funded co-design projects.
• Scientific, open-source software development & high-performance computing.
  • Use of MPI, GPU, modern C++ (including templates), Python for analysis, AMReX library.
  • Scaling, profiling, and performance optimization strategies for matrix-based algorithms and root-finding methods.
• Modeling of self-consistent quantum transport in nanomaterials (Quantum-eXstatic).
  • Modeling of carbon nanotube field effect transistors (CNTFET).
  • Nonequilibrium Green's function (NEGF) method for electrons and phonons.
  • Electrostatics with embedded boundaries.
• Modeling of electromagnetic waves in microelectronic circuits.
  • Finite difference time domain (FDTD) method.
  • S-matrix characterization of transmission lines.

Graduate Research Assistant (Ph.D. & M.S.)

• Interdisciplinary collaborations through projects funded by ONR, AFOSR, NASA.
• Scientific software development & High-performance computing.
  • Use of MPI, GPU, C++, Python & Bash.
  • Scaling, profiling, and performance optimization strategies for statistical methods.
  • Adaptive mesh refinement (AMR) of octree grids with embedded boundaries.
• Kinetic transport in high-temperature gas dynamics.
  • Direct Simulation Monte Carlo (DSMC) method.
  • Modeling of shock-wave/boundary-layer interactions (SWBLI).
  • Multi-scale modeling of thermal protection material on spacecraft's heatshield.
• Linear stability analyses of hypersonic flows.
  • Generalized eigenvalue problems.
  • Parallel communication-reducing algorithms for proper-orthogonal and dynamic-mode decomposition.

Ph.D. in Aerospace Engineering

• Thesis: The development of kinetic models and simulation methods to study molecular fluctuations, modal response, and shock-laminar separation bubble instabilities

M.S. in Aerospace Engineering

• Thesis: Development of AMR/octree Direct Simulation Monte Carlo (DSMC) approach for shock-dominated flows

B.E. in Mechanical Engineering

• Thesis: Efficiency analysis of Aerospike nozzles.

• Recipient, FRONTERA Leadership Resource Allocation (LRAC) award

• Recipient, Aerospace Engineering Outstanding Graduate Student Fellowship

• Selectee, MAVIS Future Faculty Fellows (MF3) Program

• Recipient, Best Undergraduate Project award

• Design Patterns (Coursera certificate)

• Argonne Training Program on Extreme Scale Computing (certificate)