Condensed Matter Experimentalists
- Charles Ahn: Artificially grown materials in strong electric fields
- Sean E. Barrett: Optically Pumped Nuclear Magnetic Resonance
- Hui Cao: Nanophotonics, quantum optics and mesoscopic physics of photons
- Eduardo da Silva Neto, investigating the electronic properties of quantum materials
- Michel Devoret: Quantum coherence in mesoscopic superconductors
- Jack Harris: Quantum Optics and Radiation Pressure, Persistent Current in Normal Metal rings
- Michael Hatridge: Joining Yale July 1, 2024. Current Lab Website
- Yu He, Materials Engineering in Momentum Space
- Konrad Lehnert: Joining Yale July 1, 2024.
- Simon Mochrie: Scattering studies of soft condensed matter and biomaterials
- Daniel Prober: Quantum transport, mesocsopic physics, superconducting quantum detectors
- Peter Rakich, Quantum Nonlinear Optics
- Peter Schiffer, Magnetic Materials and Nanostructures
- Robert Schoelkopf: Quantum Transport, Single-Electron Devices, and Charge Dynamics in Nanostructures
- Hong Tang, Nanodevices
![Sample used to measure flux-induced persistent currents in mesoscopic normal metal rings. Gold rings are placed on suspended cantilevers and their magnetic moment associated with the persistent currents is measured by torque magnetometry. Optical (top) and electron microscope (bottom) images of silicon cantilevers with arrays of gold rings on them. This technique enables us to measure persistent current with great precision (Jack Harris lab). Sample used to measure flux-induced persistent currents in mesoscopic normal metal rings. Gold rings are placed on suspended cantilevers and their magnetic moment associated with the persistent currents is measured by torque magnetometry. Optical (top) and electron microscope (bottom) images of silicon cantilevers with arrays of gold rings on them. This technique enables us to measure persistent current with great precision (Jack Harris lab).](/sites/default/files/images/persistent_current-687x517.jpg)