Description: Statistical analysis of large photometric/spectroscopic astronomical survey datasets to characterise populations of astrophysical objects.
Bonsor studies the composition and evolution of exoplanetary systems through the spectra of polluted white dwarfs, whose atmospheres reveal the bulk geochemistry of accreted asteroids and comets, providing a unique observational window into planet formation and the delivery of prebiotic material.
Bryant invented the hexabundle — a lightly-fused bundle of optical fibres that behaves as an imaging integral-field unit while retaining high throughput — and leads the Hector galaxy survey instrument built around them. Her work is squarely instrumentation: fibre bundle design and fabrication, throughput and cross-talk characterisation, and the deployment of hundreds of these units on a telescope to obtain spatially resolved spectroscopy of thousands of galaxies. Positioned against the established body of NV-ensemble quantum sensing work — DEER, nanoscale NMR and T1 relaxometry protocols operating at pT/sqrt(Hz) field sensitivity — the connection is device-level rather than conceptual, but the discipline — squeezing every photon out of a fibre-coupled optical train — is the same one that governs collection-efficiency-limited pT/sqrt(Hz) NV ensemble readout. Borderline inclusion under the astronomy criterion; kept because the sensor front end is the object of study.
Clements studies dusty, infrared-luminous galaxies and gravitationally lensed submillimetre sources using Herschel, ALMA and other facilities to probe galaxy formation and evolution, and works on transient/anomaly detection in large astronomical surveys.
Maiolino investigates the formation, evolution and transformation of galaxies and black holes, with a current focus on the discovery and characterisation of massive black holes and Pop III star signatures in the early Universe using JWST/NIRSpec; he is also Project Scientist for the MOONS multi-object spectrograph (VLT) and the ANDES high-resolution spectrograph (ELT).
McMahon develops data-intensive, multi-wavelength observational techniques for wide-field imaging surveys (including gravitationally lensed quasar discovery in Gaia data) and plays a leading role in the Square Kilometre Array (SKA) and MOONS spectrograph projects, as well as national AI research infrastructure for astronomy.
Mohanty's group studies the formation and early evolution of stars, brown dwarfs and planetary systems, combining optical/infrared spectroscopy and ALMA observations of protoplanetary disks to understand accretion, disk chemistry and planet formation.
Mortlock develops Bayesian statistical methods to find and characterise rare astrophysical objects in large sky surveys, most notably the discovery of some of the most distant known quasars, informing early-Universe black-hole growth and reionisation studies.
Owen works on the theory and observational consequences of protoplanetary disk evolution, photoevaporation and exoplanet demographics, explaining features such as the observed radius gap in close-in exoplanets.
Reichardt leads Melbourne's CMB effort and is a member of SPT-3G, the third-generation South Pole Telescope camera, whose focal plane is populated by ~16,000 transition-edge sensor bolometers read out by SQUID multiplexers. His science targets are CMB lensing, the Sunyaev-Zel'dovich effect and the small-scale temperature and polarisation power spectra; the enabling technology is cryogenic quantum-limited detection. Positioned against the established body of NV-ensemble quantum sensing work — DEER, nanoscale NMR and T1 relaxometry protocols operating at pT/sqrt(Hz) field sensitivity — this is the astronomical analogue of the same problem — a detector whose noise floor is set by fundamental quantum limits rather than by the source — and TES/SQUID readout is a natural pivot for a physicist trained on pT/sqrt(Hz) magnetometry, since SQUID amplification is the shared hardware. Preferred attribute present: astronomy where the quantum sensor is the enabling technology.
Tacchella studies the physics of galaxy and black hole formation and evolution across cosmic time, combining analytical and cosmological models with cutting-edge multi-wavelength data, and plays a leading role in JWST/NIRCam observations characterising the earliest galaxies.