PhD researcher in Houck Lab researching novel protected superconducting circuits and qubits. With new materials and designs, I am creating protected superconducting qubits that intrinsically are isolated from environmental noise to increase the coherence of superconducting qubits.

- Developed an application based quantum computing benchmark protocol for quantum hardware in collaboration with various Quantum Computing companies such as IBM, IonQ and Honeywell- Designed an open-source repository of the benchmark protocol with dedicated readmes describing each quantum algorithm and how each are benchmarked- Pushed ~20,000 lines of code benchmarking canonical and hybrid quantum algorithms in Qiskit, CIRQ, and Amazon Braket

-Developed 3 new committees focused on a High School Quantum Computing Initiatives, Quantum Conversations between academia and industry, and Stanford's first joint Quantum Computing Hackathon-Organized and taught an Open Source Quantum Computing Stanford course connecting students with mentors and open source quantum computing projects

-Facilitated quantum programming workshops with Rigetti, Google and professors hosting for 100+ undergraduate and graduate students-Communicated with various quantum computing startups, companies and research groups for tours, quantum conferences and workshops for Stanford undergraduate and graduate students

- Designed temperature controlled soldering jig for automated creation of new wiring systems - Developed handshake between python controlled chip design software and EM Simulation Software Sonnet, allowing any engineer to design a quantum chip and simulate it all through python code- Created ipython tutorial notebook creating Bell circuits and defying Bell’s inequality on Google’s Quantum Chip

-Record up to 100 hours a quarter of audio and video for a series of engineering lectures through SCPD -Set up and manage a booth with four assorted cameras and a professional mixer four times a week

-Used a uM3 tester and cold probe to create new trends revealing failing bits at newly reached cold temperatures-Conducted over 100 hours of high temperature dielectric capability tests to characterize new dielectrics’ impact on read and write times and verify a model for the degradation of the dielectrics-Correlated 1000s of failing bits between two different DRAM testers (uM3 and C1D) to improve correlation of failing bits between Probe Department, Physical Failure Analysis Department and DRAM Process Department-Created multiple python scripts to correlate failing bits with different stress conditions and different background patterns, and to sort, organize and present failing bit data taken from Micron’s database

-Trained in dry etching with AMT 8100 Plasma Etcher for chemical etching of non-metal and metal wafers-Etched 10 wafers monthly while monitoring standard procedures used with AMT 8100

-Researched fin cavity optomechanics with applications for a nanophone to measure picoscale SAWs in the Laboratory for Integrated Nano-Quantum Systems (LINQS)-Experience using oscilloscopes, vector network analyzers, creating optical circuits and simulating by finite analysis on COMSOL -Experimented and identified effective optical circuits to minimize power loss while monitoring the device response to optimize the coupling between the mechanical and optical system

High School Summer Research Program. -Researched the Quantum Anomalous Hall Effect by growing magnetic topological insulators with a molecular beam epitaxy (MBE) and reflection high energy electron diffraction gun (RHEED) for dissipationless devices-Gained research methodology and advanced the technology to create electronic devices that do not release heat