Quantum Circuit Emulator (QCE)
A gate-based emulator in which quantum gates are implemented with conventional electronic components that directly manipulate the qubit state.
I am a PhD candidate in Physics at the University of Utah, where I received my MS in Physics in 2025. My research is experimental: I design and build classical analog electronic circuits that emulate quantum computing and quantum artificial intelligence algorithms, using classical interference and a universal set of quantum gates implemented in hardware.
Alongside the emulator work, I have built laboratory instrumentation for superconducting-device research, including a specialized double-angle e-beam evaporation chamber and a microwave technique for measuring the kinetic inductance of superconducting nanowires. I earned my BS in Engineering Physics from the University of Lahore with a Gold Medal for the highest standing in my graduating class, and I was awarded the Swigart Fellowship at Utah.
I also work as an AI/ML researcher on large-language-model systems: distributed LLM inference with Ray Serve and Kubernetes, model training with Slurm and DeepSpeed, and retrieval-augmented generation (RAG) pipelines built on Milvus.
Analog Quantum Computer Emulator (Fall 2024 – ongoing). My research explores two hardware implementations that share a common analog-signal operational framework, in which quantum algorithms are carried out by conventional electronic components working on the principle of classical interference.
A gate-based emulator in which quantum gates are implemented with conventional electronic components that directly manipulate the qubit state.
A matrix-based architecture in which analog circuitry performs weighted linear transformations for quantum artificial intelligence, with each qubit acting as an analog neuron.
Infrastructure for large language models: distributed inference (Ray Serve, Kubernetes), large-scale training (Slurm, DeepSpeed), and retrieval-augmented generation pipelines (Milvus).
Measurement and fabrication tools for superconducting nanowires, including kinetic-inductance measurement and double-angle e-beam deposition.
Lassonde Entrepreneur Institute · University of Utah · March 24, 2026
A feature by Zita Lulloff on how a childhood of taking apart toys and building remote-controlled boats and aircraft led to my research on analog quantum computer emulators.
Read the article →
Instrumentation · Fall 2023
Full mechanical assembly of a double-angle deposition chamber: designed the sample holder, implemented a liquid-nitrogen-cooled sample stage, built the sample loading, retrieval and manipulation mechanism, and machined custom components.
Experimental · Summer 2023
Devised a microwave measurement technique to determine the kinetic inductance of superconducting nanowires.
BS Thesis · 2020 – 2021
Implemented Shor’s algorithm on a quantum processor with Qiskit and Python to solve integer-factorization problems that are classically intractable.
I welcome questions about my work, collaboration ideas, and inquiries about research positions. My full CV and references are available on request.