Dr Terry Dyer

Research Fellow


Personal statement

Recent developments in atomic magnetometry offer the possibility of portable devices capable of sub-pT magnetic field detection. Target markets include medical imaging, geological surveying, security and inertial sensing. Micro-fabricated alkali vapour cells are a key enabler of this technology. My research focuses on the design, fabrication and test of these cells.


Micro-fabricated caesium vapor cell with 5 mm optical path length
Dyer T, Ingleby SJ, Dunare C, Dodds K, Lomax P, Griffin PF, Riis E
Journal of Applied Physics Vol 132 (2022)
A digital alkali spin maser
Ingleby Stuart, Griffin Paul, Dyer Terry, Mrozowski Marcin, Riis Erling
Scientific Reports Vol 12 (2022)
Accurate optically pumped magnetometer based on Ramsey-style interrogation
Hunter Dominic, Dyer Terry E, Riis Erling
Optics Letters Vol 47, pp. 1230-1233 (2022)
Subpicotesla scalar atomic magnetometer with a microfabricated cell
Zhang Rui, Dyer Terry, Brockie Nathan, Parsa Roozbeh, Mhaskar Rahul
Journal of Applied Physics Vol 126 (2019)
Microfabricated atomic clocks and magnetometers utilizing side recesses
Parsa Roozbeh, Mirgorodski Iouri, French William, Brockie Nathan, Gabrys Ann, Dyer Terry
Concave cavity for integrated microfabricated sensor
Gabrys Ann, Brockie Nathan, Dyer Terry, Parsa Roozbeh, French William

More publications

Professional activities

Quantum Technology Showcase 2019
STEMFest 2019

More professional activities


Flux-gate magnetometer array
Dyer, Terry (Principal Investigator)
01-Jan-2022 - 30-Jan-2023
Rubidium magnetometer arrays for electric vehicle batteries - Sussex Partnership Project
Dyer, Terry (Principal Investigator)
01-Jan-2020 - 20-Jan-2022
A miniaturized orthogonal fluxgate magnetometer
Dyer, Terry (Principal Investigator)
01-Jan-2020 - 30-Jan-2022

More projects