Now Recruiting for the 24/25 Academic Year
Looking for motivated graduate students! Email Gleb Finkelstein or apply directly through the Graduate School
Active Research
We are working on novel quantum phenomena in low-dimensional systems, especially at the interface between superconducting and topological states. Our core work focusses on nano-fabrication and transport measurements of novel quantum devices. We also measure electrical current fluctuations due to quantum effects at mK temperatures. Finally, can characterize superconducting qubits with the newly built high-frequency setup.
Superconducting effects in the quantum Hall regime
Inducing superconducting correlations in the topologically protected edge states. This research is inspired by the search for the topologically protected qubits.
Multi-terminal Josephson junctions
Exploring complex phase dynamics in graphene-based multi-terminal Josephson junctions and Josephson circuits, via both experiment and simulation.
Superconductivity at the complex oxide Interfaces
Exploring superconducting mechanisms in novel materials, and looking for their application in superconducting electronics and computation.
High frequency measurements
Characterizing and designing qubits in novel systems using high-frequency measurements and providing RF drive to explore Josephson junction behaviors through Shapiro steps.
Latest News
June 2024
Thermal properties of superconductor-quantum Hall interfaces is out on arXiv! This exciting paper combines prior work on superconductor-quantum Hall interfaces with our developments in thermal noise measurements.
May 2024
We’ve welcomed two new undergraduates into the lab for summer REU programs! They’re learning quickly and we’re excited to see what they can do!
May 2024
It was nice to see former grad student Ethan back in the lab! He visited us from his new position at MIT and shared some exciting results!
March 2024
Non-local transport measurements in hybrid quantum Hall-superconducting devices was accepted to PRB! This is the latest paper in our series of work on interactions between quantum Hall edge states and superconductors.
