Applied AI and statistical modeling for high-dimensional, uncertain environments across science, engineering, and operations.
Tools that learn from data, simulate scenarios, and surface structure in messy, multi-scale systems.
Exploring quantum and quantum-inspired approaches to search, scheduling, and constrained optimization at scale.
End-to-end pipelines with observability, performance, privacy and safety in mind—built to support demanding compute and data workloads.
Avah blends theory and systems. She has worked across graph algorithms, high‑performance computing, and quantum computation—building compilers for quantum circuits, exploring quantum walks, and designing resource‑efficient chaos generators. Her recent focus applies classical and quantum Markov chains and Monte Carlo methods to modeling, simulation, and optimization under real‑world constraints. Former faculty with a track record of funded research and industry collaboration. At semiqlassical, she steers architecture and the math behind our AI and quantum‑inspired tooling.
Emily turns noisy signals into decisions. Trained in chemical engineering and neuroscience, she has built advanced optical imaging systems, crafted ML pipelines to decode visual pathways, and shipped deep‑learning models that separate signal from artifact. She cares about operability, latency, and measurement—what it takes to move from the lab to working systems. At semiqlassical, she leads data, modeling, and the human factors of tools meant to support high‑stakes, everyday use.
We’re supported by a small circle of prominent scientists who collaborate with us quietly.