Dr. Wenyuan Wang, Assistant Professor in the Department of Physics and Astronomy, University of Calgary, is recruiting MSc and PhD students incoming Fall 2026, to be working on theoretical quantum communication or optical quantum information processing.
Potential topics:
In robotics, many perception and control challenges are formulated as the optimization of complex, non-linear cost functions. A fundamental example is the estimation of a camera’s position and orientation from known correspondences between 3D points in the environment and their 2D projections on the image plane. This problem, known as the Perspective-n-Point (PnP) problem, is central to several key robotic applications, including localization, 3D reconstruction, and autonomous navigation.
The National Physical Laboratory (NPL), the UK’s national metrology institute and a world-leading centre for measurement science and innovation, is hiring motivated researchers at multiple seniority levels to join our Quantum Software & Modelling team, contributing to NPL’s role in realising the UK’s Quantum Technologies missions.
This is an exciting opportunity to work on cutting-edge research in one or more of the following areas:
The National Physical Laboratory (NPL), the UK’s national metrology institute and a world-leading centre for measurement science and innovation, is hiring motivated researchers at multiple seniority levels (permanent contract) to join our Quantum Software & Modelling team, contributing to NPL’s role in realising the UK’s Quantum Technologies missions.
This is an exciting opportunity to work on cutting-edge research in one or more of the following areas:
In this role, you will contribute to the design and development of novel quantum algorithms aimed at approaching nonlinear partial differential equations. In particular, you will work within the MIHYSYS project, which aims at understanding the potentialities and limitations of quantum computing to approach super and hypersonic flows. This research includes the development of strategies to contour limitations of NISQ variational quantum algorithms, as well as performing end-to-end resource estimations for early FTQC algorithms considering realistic hardware constraints of different technologies. You will work in close collaboration with french startups of the quantum ecosystem, and contribute to the design of an internal roadmap on quantum computing for aerospace applications.
Equal1 has built a spin-qubit quantum processor, and we are now developing the algorithms and application workflows that will demonstrate and define future use cases for next generation devices.
We are seeking a highly accomplished Quantum Algorithms Developer to join our Quantum Algorithms team, contributing to the research and development of innovative algorithms that fully leverage the capabilities of Equal1 quantum computers for our customers.
Are you passionate about developing soft- and hardware for embedded systems (specifically FPGA) and quantum physics gets you excited too? Then this role might be just for you! As part of our multi-disciplinary team, you will be actively driving our embedded system design and development for our quantum systems. See our webpage for more details about the position.
MOTH is inviting applications for a full-time staff researcher in quantum error correction. This position will support MOTH’s long-term vision for early fault-tolerant and fault-tolerant quantum computers, helping to create algorithms that will bring quantum advantages to the Media and Entertainment industries (including games, graphics and music).
Our Quantum AI and Metrology Laboratory at Hanyang University, Korea, is seeking highly motivated, qualified, and independent Master’s students, Ph.D. students, and Postdoctoral researchers in theoretical quantum information science.
Our research covers a broad range of topics, including (but not limited to):
* Quantum sensing and metrology
* Quantum computation and algorithms
* Quantum simulation
* Quantum artificial intelligence
* Quantum nanophotonics
* Other quantum applications
At neQxt, our theory team explores the principles that make scalable quantum computing possible. We study how fault tolerance can be realized under realistic conditions, designing circuits, developing simulation methods, and analyzing noise at the circuit level. A key part of our work is to understand trade-offs between different approaches and how they can be embedded into modular architectures. We aim to connect theoretical insights with practical feasibility, developing techniques that move fault tolerance closer to realization. By building tools, models, and architectures, we provide a bridge between abstract principles and the requirements of physical quantum processors.
