I build production electromagnetic solvers used by engineers worldwide. 15+ years turning complex physics into fast, reliable software — from GPU-accelerated algorithms to commercial simulation tools shipping in products like Simcenter Feko.
I build the algorithms that make electromagnetic simulations fast enough to be useful. My work sits at the intersection of applied mathematics, physics, and high-performance computing.
Currently at Siemens Digital Industries Software, I develop GPU-accelerated electromagnetic solvers for Simcenter Feko — combining deep expertise in computational electromagnetics with modern AI-augmented development practices. Previously, I spent over a decade at Altair Engineering contributing to Feko's solver technology.
My research background spans biomedical microwave imaging at Dartmouth College and Polytechnic University of Turin, where I developed real-time imaging algorithms accelerated on multi-GPU systems for clinical applications including breast cancer detection and surgical guidance.
GPU acceleration with CUDA, multi-GPU systems, parallel algorithms, and deep performance optimization for scientific workloads.
Finite Element Methods, computational electromagnetics, inverse problems, and numerical linear algebra for large-scale simulations.
Sparse and dense matrix solvers, preconditioners, domain decomposition methods, and iterative solver technology.
PDEs, integral equations, optimization methods, inverse scattering, and medical imaging reconstruction algorithms.
Production-grade C++ and CUDA for commercial simulation software, with modern development practices and CI/CD pipelines.
LLM-assisted development, investigating AI/ML applications in computational electromagnetics workflows and solver acceleration.
Developing high-performance electromagnetic simulation algorithms for Simcenter Feko within the Siemens Xcelerator ecosystem. GPU-accelerated solvers, numerical methods development (MoM, FEM, FDTD), and AI/ML integration into CEM workflows.
Developed high-performance algorithms for Altair Feko, a leading computational electromagnetic software used globally for antenna design, EMC analysis, and RCS computation.
GPU-accelerated algorithms for computational EM in biomedical and industrial contexts. Implemented fast solvers integrated into the MICENEA project for real-time medical imaging.
Design and simulation of RF devices and antennas in complex media. Lead computational researcher on the RADIODRY industrial project.
Developed GPU-accelerated sparse linear solver for medical imaging. Achieved 8× speedup vs. Intel PARDISO MKL on sequential core for real-time image reconstruction.
Developed HPC algorithms for multi-modal image guidance system (NIH Grant). Achieved 20× acceleration using multi-GPU systems for real-time prostate biopsy guidance.
Full list: 30+ peer-reviewed publications — View complete list ↗
Computational Methods for Microwave Imaging — Biomedical Applications
GPU-accelerated algorithms, inverse scattering, HPC
Microwave Tomography for Breast Cancer Detection
Computational modeling, signal processing
Noise Reduction in Magnetic Resonance Imaging
Algorithm development, image processing