We are looking to recruit an experimental postdoctoral researcher to join Dr Tobias Franzen's newly established research group within the Quantum Light & Matter section at Durham University (UK). The to work on an EPSRC-funded project aiming to combine arrays of single ytterbium atoms with optical cavities to enable quantum networking over telecom fibres.
More details on the project can be found on https://durham-qlm.uk/research/tech/quantum-networking/ and full details on the post and application process are here: https://durham.taleo.net/careersection/du_ext/jobdetail.ftl?job=26001358
I'm always happy to discuss the project in more detail with any potential applicants and answer any questions, so please don't hesitate to contact me (tobias.franzen@durham.ac.uk).
The initial appointment will be for 24 months, with the possibility of extension. International applicants are encouraged to apply and will be eligible for the Durham University Visa Reimbursement Scheme. The closing date for applications is at 11:59pm (UK time) on Sunday 15th November 2026. The start date is quite flexible.
QUANTUM ROLE CONTEXT | Appended by Quantum.Jobs v2
Role context:
Experimental postdoctoral research roles exist to advance primary physical investigation and translate laboratory-scale physics into functional experimental assemblies. Operating within academic laboratory environments, these researchers design setups, execute optical measurement protocols, and gather foundational physical data. Positioned between senior academic principal investigators and junior research students, practitioners in this capacity operate at the primary testing phase of physical hardware development, ensuring that physical phenomena are systematically controlled and evaluated before broader architecture integration.
Quantum ecosystem relevance:
Postdoctoral experimental roles contribute to the quantum ecosystem by validating hardware components necessary for quantum communications and networking infrastructure. By interface-testing light-matter nodes, optical cavity coupling, and atomic systems, researchers generate empirical data required for developing scalable quantum interconnects. This technical function supports academic research programs and provides foundational methodologies that inform long-term commercial technology strategies for long-distance quantum signal transfer across standard optical fiber networks.
Capability signals:
- Hands-on expertise in experimental atomic physics setups and optical cavity alignment techniques
- Demonstrated skill in operating laser systems for atomic trapping and state manipulation
- Experience with low-loss optical fiber coupling and light-matter interface characterization
- Deep technical understanding of quantum optics principles and optical hardware calibration
- Proficiency in collecting, processing, and analyzing complex physical data from laboratory instruments