Summary: Strong AMO and quantum-sensing presence (Stamper-Kurn ultracold atoms, Budker precision magnetometry legacy ties) plus tight coupling to Lawrence Berkeley National Lab across the street.
Notes: Excellent access to LBNL cleanrooms and beamlines; large, diverse postdoc community.
Warnings: Bay Area housing costs are punishing on a postdoc salary; commute from affordable areas can exceed an hour.
Whaley directs Berkeley's Quantum Information and Computation Center and develops theory for quantum control, quantum simulation, and error-corrected quantum sensing protocols using interacting spin ensembles, providing the theoretical underpinning for many solid-state and atomic sensing platforms on campus.
Xu develops STORM and related single-molecule-localization super-resolution imaging methods, along with new fluorogenic and multiplexed labeling strategies, to visualize cellular ultrastructure at ~10-20 nm resolution. The group is actively recruiting postdocs.
Xu works on frequency-dependent squeezed-light injection for quantum-enhanced gravitational-wave detection at LIGO and on trapped-cavity atom interferometry for precision tests of fundamental physics, bridging quantum optics and atom-based inertial sensing.
Yildiz uses nanometer-precision single-molecule fluorescence and optical/magnetic tweezers (FIONA-type localization) to resolve the stepping mechanisms of cytoskeletal motor proteins such as myosin, kinesin, and dynein in living cells.
Zheng develops in-situ liquid-cell transmission electron microscopy to directly observe nanocrystal nucleation, growth, and chemical transformation in solution with nanometer spatial and sub-second temporal resolution, capturing dynamic processes invisible to static microscopy.
Zuerch combines tabletop attosecond/femtosecond XUV sources with photoemission electron microscopy to image ultrafast magnetic, electronic, and structural dynamics in quantum materials with combined nanometer spatial and femtosecond temporal resolution. The lab is actively recruiting postdocs.