Building on the success of our earlier programs, such as LQuIP and SQEIP, we continue to empower interns to produce high-caliber research with EQuIPT. Our participants frequently showcase their findings at leading national conferences, including APS and AVS meetings. A significant number of interns go on to pursue careers in Quantum Information Science.
LQuIP 2025
SQEIP 2024
Working at UMD really helped me grow as an independent scientist and researcher. I not only learned a lot about thin film deposition and characterization, but also how to be more independent and productive as a researcher. I gained a lot of valuable skills during my time there and it opened many doors for me later on. I would recommend it (and have!) to anyone interested in quantum electronics research.
Participating in SQEIP/LQuIP was one of the most eye-opening research experiences I have had. At LPS, I learned the fundamentals of cryogenics and radiofrequency systems through hands-on work such as soldering, data collection, and Python-based analysis, which helped me understand the basics of qubits. At QMC, I prepared and analyzed crystals in the Materials Synthesis Lab, gaining firsthand experience with crystal growth and material properties. This program exposed me to multiple areas of quantum information science and provided valuable insight into real research lab environments. As a computer science student, understanding how these devices are designed and built has been especially valuable for my future career, and the training I received gave me a strong foundation upon which I will be able to build and maintain a career in the quantum information science field.
My two years as a summer intern at SQEIP and LQuIP were great experiences. The first summer, I gained foundational skills in vacuum and cryogenic technology, along with hands-on training in the growth, characterization, and measurement of quantum materials. The second summer, I applied these skills when I developed a robust niobium (Nb) sputtering process optimized for evaluating candidate substrates for superconducting qubits. During the process, I deposited thin Nb films on silicon (Si) substrates using DC magnetron sputtering under varying powers, deposition times, and pressures. I employed surface cleaning methods such as ex-situ HF etching, piranha etching, and oxygen plasma etching. At the end of my project, I had produced a reliable and repeatable recipe for Nb thin films on Si with critical temperatures around 9.2K. I went on to present a poster at the 2025 American Vacuum Society 71 International Symposium and Exhibition, where I earned the 3rd Place Poster Award. These experiences led me to where I am today, currently applying to Master's and PhD programs in physics so I can continue my research in quantum information science.
I characterized the electrical properties of several materials and devices, primarily based on Ge Quantum Wells (Ge QWs). I became familiar with the LakeShore cryoprobe station (pictured here) for rapid cryogenic measurements. I also used the DynaCool Physical Property Measurement System for long-term magnetic field and temperature dependence studies. As I was working on measurements, I developed in-house software to manage experimental setups and monitor measurements. Throughout this internship, I learned about good practices for software development, techniques for data analysis, and methods for thin-film characterization.
LQuIP was a great summer program that allowed me to explore quantum physics research as well as learn more about RFSoC-based hardware and how to bridge the gap between quantum theory and practice. I also gained hands-on experience with lab tools and the mentorship helped and pushed me to become a more well-rounded researcher. This internship helped me contribute meaningfully to more advanced research and strongly shaped my interest in pursuing future work in experimental quantum systems.
This internship played a significant role in shaping my career path. As an undergraduate majoring in Materials Science and Engineering, I was initially uncertain about what direction I wanted to take post-graduation. I participated in the Summer Quantum Engineering Internship Program in the summer of 2024, right before my final undergraduate year. Through this experience, I gained a strong introduction to quantum engineering, including hands-on training in a range of techniques, exposure to different laboratory environments and equipment, and collaboration with a diverse team with varied skill sets and backgrounds. The program sparked my interest in materials characterization within quantum research and solidified my desire to continue working at LPS. Following graduation, I am proud to have returned as a post-baccalaureate research fellow on the QCoR nanofabrication team.