
Global Quantum Leap Program (GQL), May 2024-Aug. 2025
University of Wisconsin-Madison
Bachelor of Science in Materials Science and Engineering
Linkedin | GitHub
As a participant in the Global Quantum Leap Program (GQL), I am focusing on optomechanics. My primary project involves constructing an interferometer to analyze mechanical vibrations of MoSe2 on a Si chip with membranes. This project involves developing skills in Python programming for operating a spectrum analyzer, camera, and other equipment. I am studying the physics of optics to build an optical system utilizing a 1550 nm laser and an LED.
Amelie has demonstrated exceptional dedication to interdisciplinary research by integrating experimental techniques with computational tools. In her optomechanics project, she developed Python-based control software to operate a spectrum analyzer and optical hardware as part of an interferometer setup for studying mechanical vibrations in 2D materials. This work reflects strong capabilities in instrumentation, optics, and Python-based hardware integration (see Summer Program Report).
Her open-source projects address key challenges in experimental efficiency. PyBridge is a flexible, modular platform for generic lab automation used widely across our optics lab to coordinate devices and streamline measurement sequences. Nano_Scan is tailored for our magneto-optic Kerr effect (MOKE) setup, supporting automated sample scanning, image acquisition, and data logging. These tools have significantly reduced the burden of manual measurement procedures for lab members.
Beyond software and hardware, Amelie contributed to the design and implementation of a structured lab organization system. She developed labeled hardware inventories, standardized operating procedures for the interferometer setup, and onboarding documentation to improve reproducibility and safety. These efforts have enhanced day-to-day lab operations and reflect her initiative in creating scalable, maintainable research infrastructure.
My primary research interest lies in quantum computing and the future technological applications of 2D materials in quantum systems. 2D materials, such as graphene and transition metal dichalcogenides, have unique electronic, optical, and mechanical properties that make them promising candidates for quantum computing applications. I hope in the future to focus on potential applications of 2D materials for quantum computing technology.