Overview
Molecular spins combine the coherence, optical readout, and room-temperature operation of solid-state spin qubits with the atomistic tunability and nanoscale modularity of synthetic chemistry. You will use this combination to develop a new class of quantum sensors for biosensing and nanoscale magnetic resonance.
Background
Optically addressable spins—most prominently the nitrogen-vacancy centre in diamond—have demonstrated the promise of spin-based quantum-sensing, e.g., sub-cellular magnetic-resonance spectroscopy under ambient conditions. However, quantum sensing involves a delicate balance: coherence thrives far from external influences, while proximity and strong interactions with targets optimise their detection.
Molecular spins offer a compelling balance of such demands. At ~1 nm size, they open unprecedented target proximity, and chemical techniques allow them to be attached to desired locations, engineered for stronger coupling to sensing fields, and tuned atom-by-atom. We have established such systems as a distinctive quantum-sensing platform [see e.g., Phys. Rev. Lett. 133, 120801 (2024); JACS 147, 22911 (2025); MRS Bulletin 51, 312 (2026); arXiv:2510.09440; chemRxiv.15004718].
The role
You will deploy advanced spin-optical measurements—including pulsed optically detected magnetic resonance—on molecular spins in both ground and excited states. You will advance their capabilities for nanoscale measurement and control, enhanced couplings to sensing fields, room-temperature operation, and deployment as practical quantum probes. You will focus on quantum measurement, with molecules synthesised by collaborators.
What we offer
- Vibrant team—more than ten researchers spanning physics, chemistry, quantum engineering, and materials science.
- State-of-the-art experimental capabilities—including single-spin confocal pulsed ODMR from 4-300 K.
- World-class collaborators—including at Imperial, Cambridge, Tokyo, with opportunities for lab visits.
- Career development—conference travel, support for independent Fellowship applications, PhD-student co-supervision.
What we’re looking for
- A PhD in physics/chemistry/materials science/engineering/a related discipline.
- Experimental experience with spin systems and their control—e.g. spin resonance, solid-state defects.
- We particularly welcome applications from candidates from groups historically under-represented in STEM, and are committed to fostering an inclusive, supportive, and flexible working environment.
For informal enquiries please contact Dr. Sam Bayliss ().
This post is full-time (35 hours per week), and has funding available for up to 3 years in the first instance. Relocation assistance will be provided where appropriate.
For more information and to apply online please click on the 'Apply' button above.
Closing date: 17 September 2026
We strongly endorse the principles of Athena SWAN, including a supportive and flexible working environment, with commitment from all levels of the organisation in promoting gender equality.
The University of Glasgow, charity number SC004401.
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