Quantum, and in particular quantum technology, is a booming research and development field in the Netherlands, in Europe and around the world. Future quantum applications in the area of computing, communication and sensing are likely to have a profound impact on society.
The first quantum revolution in the 20th century provided us with many important new insights into the world of atoms and has led for example to the ultraprecise atomic clock. Now we are at the start of the 2nd quantum revolution in which we like to explore these quantum principles, such as superposition and entanglement, to create new powerful technologies, that have no classical counterpart. This domain contributes to the Quantum Technologies priority of the NTS.
Shaping the Quantum Future
Quantum technology is opening up a new frontier in science and engineering鈥攐ne that promises to revolutionize computing, communication, and sensing. At the Department of Applied Physics and Science 在线黑料门, we are at the forefront of this exciting field, combining deep scientific exploration with the development of real-world quantum technologies.
Our research spans three major areas:
- Quantum Computing
We are developing new types of quantum processors that could one day solve problems far beyond the reach of today鈥檚 computers. One of our leading approaches uses neutral atoms, which can be precisely controlled using lasers to form large, scalable systems. Our work is closely connected to advances in quantum materials and photonics, helping to build the foundation for full-stack quantum computers.
- Quantum Communication and Sensing
Quantum communication offers ultra-secure ways to share information, while quantum sensors can detect changes at incredibly small scales with unmatched precision. We are working on technologies like quantum photonic devices, ultracold atom sensors, and highly sensitive mechanical systems that could transform fields from healthcare to environmental monitoring.
- Quantum Materials and Fundamental Physics
To make quantum technologies possible, we also explore and develop the materials they rely on. This includes 2D materials, topological materials, and new fabrication techniques at the atomic scale. At the same time, we conduct fundamental research into the strange and powerful behaviors of quantum systems, such as quantum gases, spin-based phenomena, and light-matter interactions, to better understand the rules that govern the quantum world.
By combining theory, experimentation, and advanced simulations, including AI-powered models, we aim to unlock the full potential of quantum science. Our work not only contributes to the global quantum ecosystem but also connects directly to applications in computing, energy, sensing, and secure communication.