Can quantum gases be used as direct probes of condensed matter systems? If, so what sensing advantage might they provide? Our group has recently developed the SQCRAMscope (Scanning Quantum Cryogenic Atom Microscope), a novel quantum sensor that uses an ultracold quantum gas as a micron-resolution magnetometer. It is capable of imaging DC electron transport and magnetization in both room-temperature and cryogenically cooled quantum materials with unprecedented sensitivity. Our novel microscope opens a new frontier in quantum metrology and is the first example of the direct marriage of ultracold AMO physics with condensed matter physics for the exploration of technologically relevant strongly correlated and topologically nontrivial materials. For example, we have already used the SQCRAMscope to locally imagine the electron nematic domains that arise in an iron-pnictide high-Tc superconductor.
First science from SQCRAMscope! We have imaged the electron nematic transport in iron-based pnictide high-Tc superconductors. Read about it... Read More
Dr. Steve Edkins won Institute of Physics prize for best PhD thesis in the field of superconductivity for 2016. Congratulations, Steve!
Introducing the SQCRAMscope. ArXiv paper describes new microscope functionality.
Matt Naides just defended his Ph.D. thesis! Way to go Dr. Naides!
Paper on the reconfigurable atom chip trapping of atoms near cryogenic materials published in Appl. Phys. Lett. We demonstrate a novel atom chip... Read More