Are you passionate about quantum technologies and eager to further develop a Rydberg atom quantum computing platform as a 24/7 user-facility for hybrid quantum comping? Join us! We are looking for a candidate that drives the theory of Rydberg atoms in optical tweezers, algorithm and software development for our full-stack quantum computers.
InformationAt TU/e, the ultracold atom laboratory of CQT, part of the Center for Quantum Materials and Technology (QT/e), is developing neutral‑atom quantum computing platforms based on Rydberg interactions. This project is part of the KAT‑1 Quantum Delta NL program on hybrid quantum computing, a demonstrator built on Quantum Inspire, the European quantum computer that offers 24/7 online access. A crucial component is our Rydberg Simulation Platform (RySP)—the digital twin and software control unit of our atomic tweezer testbeds—which also underpins the Rydberg emulator backend already available on Quantum Inspire.
Your role will be to lead the extension of RySP to fault‑tolerant logical qubit operations, including the design, implementation, and validation of quantum error‑correction (QEC) protocols tailored to neutral‑atom architectures. This entails integrating atom shuttling, developing logical gate primitives, and adding circuit transpilation and code‑interpretation layers to the existing software stack. You will also extend RySP to host quantum algorithms for benchmarking our neutral‑atom hardware against RySP itself and against other quantum‑computing platforms. RySP runs on the Eindhoven HPC infrastructure; as part of this effort, you will help evolve RySP into an external access portal offering expanded functionality complementary to Quantum Inspire.
The selected candidate will play a leading role in the full‑stack integration of our quantum computing platform and help convert scientific questions into feasible quantum computations. You will collaborate with the Eindhoven high‑performance computing center (HPC) and interface the platform with Quantum Inspire, making it accessible to the broader community. Working closely with experimentalists, you will help make our control software compatible with external access and further develop the Rydberg emulator backend for integration with qubit hardware.
The qubit hardware that we operate in our laboratories are two neutral‑atom quantum computing platforms (rubidium and strontium). Optical tweezer arrays provide programmable and precise control and site‑resolved single‑atom readout. Rydberg excitation enables strong nearest‑neighbor coupling for multi‑qubit entanglement. The architecture is highly scalable to large qubit counts via array reconfiguration, atom shuttling, and parallel control—offering a promising route to fault‑tolerant quantum computing. The platforms are built for stable, continuous operation with 24/7 online access for community use. More information:
www.tue.nl/rydbergQC.
The selected candidate will work together with several PhD candidates (other vacancy available
here), fellow postdocs/quantum engineers, MSc students and the PI’s within the ultracold atom team at QT/e. Moreover they will collaborate with the
ultracold strontium lab at the UvA in Amsterdam, other partners within the Kat-1 collaboration and the Casimir Institute and the wider QNL quantum research network in the Netherlands. The work will be carried out in the Center for Quantum Materials and Technology (QT/e) within
the CQT research group.