PostDoc

Available immediately. Experimental postdoc position in atomic physics pursuing implementations of quantum information science (QIS) in neutral atom systems within the contexts of quantum sensing with atom interferometers, and/or multi-atom entanglement using interactions between ultra-cold Rydberg atoms in optical tweezers. These research directions build upon our prior, foundational work with entangling interactions using ultra-cold Rydberg atoms controlled in optical tweezers, as well as novel techniques for matter wave interferometry.

Quantum Software Lab at the University of Edinburgh is hiring for five Tenure-Track Positions!

My colleague Deny Hamel at Université de Moncton is looking for a postdoctoral researcher to join the Quantum Lab Moncton.

If you like hands-on quantum optics, building experiments, and actually making entangled photons behave the way you want (or at least trying to), this might be for you.

📍 Moncton, NB (Canada)
📅 Start: July 2026 (flexible)
🗓 Deadline: June 1st, 2026

A two-year post-doctoral position is open at the Interdisciplinary Research Institute of Grenoble (IRIG) of the CEA Grenoble (France) on the theory and modeling of silicon/germanium electron and hole spin qubits. The selected candidate is expected to start mid-August 2026 or after.

Build the next generation of quantum many-body simulation methods!

We are seeking a postdoctoral researcher to work on strongly correlated fermionic systems with long-range interactions, within the group of Dr. Paolo Molignini at Stockholm University.

The project centers on developing AETHER, a novel computational framework for simulating long-range interacting quantum systems in experimentally relevant regimes (dipolar gases, cavity QED), combining adaptive many-body methods, machine learning, and high-performance computing.

We are seeking a Postdoctoral Researcher (Adiunkt) to join the research group at the Center for Theoretical Physics PAS, led by Dr. Eng. Patryk Lipka-Bartosik, within the project “Thermodynamics of Information Processing: From Theory to Applications”.

The project aims to bridge fundamental research with potential technological applications in information thermodynamics — an interdisciplinary field at the intersection of information theory, stochastic thermodynamics, and quantum physics.

We are seeking Senior Researchers in Fault-Tolerant Quantum Computing to contribute to the development of key components of the fault-tolerant stack. These roles focus on decoders and quantum algorithms at the logical level, addressing how quantum information can be processed reliably in large-scale, error-corrected systems.

Seeking a Research Fellow in quantum foundations to work on the externally funded project, “Advancing Quantum Experiments to Test Reality Beyond Bell’s Theorem” held by Prof. Howard Wiseman, Assoc. Prof. Eric Cavalcanti and Dr Nora Tischler. We are all members of the Centre for Quantum Dynamics at Griffith University, now subsumed within QUATRI. This grant builds on the Local Friendliness No-Go theorem published by us and co-workers (Bong et al., Nature Physics 2020), in particular with new experiments inspired by it, and working out the implications of the theorem and variations on it.

Toshiba Europe Ltd has been at the forefront of quantum technology research, particularly quantum communications and quantum key distribution (QKD), for over two decades. Our research underpins deployed Quantum Key Distribution (QKD) systems and continues to drive innovation in next‑generation quantum‑secure networking. An established leader in photonic integrated circuit (PIC) research for QKD, Toshiba is accelerating the transition of PIC-based QKD devices from lab to market.

With over two decades of research, innovation and development, Toshiba is at the forefront of quantum science and technology. In quantum communications, Toshiba commercial quantum key distribution systems offer the highest key rates on the market and play a major role in the worldwide deployment of secure quantum networks. Photonic integrated circuits are set to revolutionize the architecture and capabilities of such systems and enable large-scale networks by integrating the quantum optical hardware onto miniature photonic chips.