Prigozhin develops multicolor electron microscopy using cathodoluminescent nanoprobe protein tags and time-resolved cryo-vitrification methods to capture the nanoscale, sub-second dynamics of GPCR signaling and biomolecular condensate formation, aiming to add molecular-scale color and temporal resolution to electron microscopy's inherent nanoscale spatial resolution.

Samra develops telescopes and spectrometers flown on aircraft and balloons to observe the solar corona at EUV and infrared wavelengths, including solar magnetometry, optical design, and modeling — a borderline but included astronomy-instrumentation case given its magnetometric sensing goal, though the platform is a classical (non-quantum) spectropolarimeter.

Semeghini is an experimentalist studying quantum simulation of complex materials using Rydberg-atom tweezer arrays; she joined the SEAS Applied Physics faculty after a postdoctoral appointment in Mikhail Lukin's group. Included as a borderline, not-preferred case: the Rydberg-tweezer platform overlaps with quantum-sensing hardware, though her stated focus is quantum simulation rather than sensing per se.

Stubbs was the inaugural project scientist for the Vera C. Rubin Observatory/LSST and works on precision photometric calibration (e.g. tunable collimated beam projectors) for its 3200-megapixel wide-field survey camera, alongside dark-matter/dark-energy searches and tests of gravitation. Included as a borderline, not-preferred astronomy-instrumentation case: the camera/calibration technology is complex and cutting-edge but is CCD-based rather than a quantum sensor per se.

Szentgyorgyi builds high-dispersion optical spectrographs for precision radial-velocity exoplanet detection and stellar spectroscopy, having worked across neutrino, gamma-ray, and X-ray astronomy before focusing the last two decades on next-generation precision spectrograph instrumentation.

Whitesides' group pioneered soft lithography and paper-based microfluidics, and has long applied these tools to low-cost point-of-care diagnostic biosensors for global health settings. Included as a borderline, not-preferred biosensing case: the sensing target (colorimetric/electrochemical assays) is compelling but device-fabrication-centric rather than a cutting-edge-sensitivity physical sensor.

Yacoby's lab develops scanning-probe quantum sensors, most notably scanning single-NV-center magnetometers and SQUID-on-tip probes, to image nanoscale magnetic textures and current flow in quantum materials at cryogenic and millikelvin temperatures. This scanning-probe approach extends the sensitivity and spatial resolution of NV ensemble quantum sensing experiments (DEER, nanoscale NMR, T1 relaxometry), which established pT/√Hz-class magnetometry, down to single-spin, nanometer-scale imaging of individual quantum materials.

Yao works at the interface of theoretical and experimental many-body physics and quantum sensing, using dense NV-diamond spin ensembles and Hamiltonian engineering to push magnetometry and nanoscale NMR beyond standard-quantum-limit sensitivities. His work is a direct extension of the original NV ensemble quantum sensing experiments (DEER, nanoscale NMR, T1 relaxometry) that achieved pT/√Hz sensitivity, adding many-body-enhanced protocols and error-correction-assisted sensing on top of that foundation.

Yelin is a theorist in quantum optics and quantum information whose work includes coherent line-narrowing theory for diamond NV centers, superradiant/cooperative effects in Rydberg systems and molecular ensembles, and quantum control of ultracold polar molecules. Included as theoretical support underpinning several quantum-sensing platforms (NV coherence, superradiant clocks) rather than as an experimentalist herself; she holds a joint appointment at the University of Connecticut.

Zhuang invented STORM super-resolution microscopy and MERFISH multiplexed spatial transcriptomics, and her lab continues to push single-molecule and multiplexed imaging techniques (e.g. a recent whole-olfactory-system map) to resolve cellular structures and RNA populations at nanometer-to-single-molecule resolution, well beyond the diffraction limit.