Qdit (Quantum Circuit Compiler) - UC Berkeley
Quantum circuit compiler for systems with more than two levels.
Links: GitHub
Physics PhD student, Superconducting Quantum Detectors Laboratory, University of Oxford
Superconducting amplifiers, microwave and millimeter-wave instrumentation for photon detection and quantum state measurements.
My research deals with designing quantum-limited amplifiers for applications across the microwave and millimeter-wave bands, about 5-100 GHz. This technology finds use on ground-based telescopes; in the measurement of single photons and quantum states; and in the search for dark matter.
Previously, I worked at the Quantum Nanoelectronics Laboratory at UC Berkeley as a research and development engineer, where I designed amplifiers and wrote software for quantum computing.
Professional inquiries may contact me at elias.lehman@physics.ox.ac.uk.
Selected graduate and undergraduate work in quantum hardware, quantum software, astrophysics, and related instrumentation.
Quantum circuit compiler for systems with more than two levels.
Links: GitHub
Model derivation for parasitic SNAIL traveling-wave parametric amplifier behavior.
Links: View PDF
Preprint on efficient Clifford sampling methods.
Links: Preprint
While at the University of Waterloo's Institute for Quantum Computing, I wrote several supplemental reports to assist the Lupascu group in their research of superconducting qubits.
Links: Summary Report · Circuit Mapping · Decoherence
A project done in winter 2022 with the Quantum Open Source Foundation. Our team implemented an adaptive gradient descent for hybrid quantum-classical computing using IBM's Qiskit library in Python.
Links: Slides
I delivered this poster presentation as a final deliverable for the Berkeley Physics Undergraduate Research scholarship.
Links: View PDF
The final report for EE230: analysis of an experimental MoS2 transistor using models with a range of complexity.
Links: Report
A homework assignment for EE230: Solid State Electronics. The Python notebook solves the first 10 energy levels in different directions of a face-centered cubic crystal lattice. The used parameters are for Gallium arsenide.
Links: Notebook
A lab report from my final physics course, discussing introductory properties of chaos theory and nonlinear dynamics.
Links: View PDF
The final project for CS191: Quantum Information Science and Technology. I worked on a synopsis of the transmon qubit, heavily inspired by the 2007 Koch et al. paper.
Links: View PDF
Non-scientific essays about ontology and metaphysics.
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A randomly selected note from my favorite authors.