The quantum revolution
While conventional computers use binary bits (1 and 0) as the process for calculation, a quantum computer uses quantum bits, knows as qubits. These operate according to 2 key principles of quantum physics: superposition and entanglement. Superposition means that each qubit can represent both a 1 and a 0 at the same time, as well as many other states in between. Qubits exhibit properties of quantum entanglement – a phenomenon that means pairs, or groups, of particles, cannot be measured or described independently of each other. Measuring a single qubit in an entangled group instantly determines the state of other particles in the group. This holds true even if the particles are taken a virtually unlimited distance apart.
Large-scale quantum computers would theoretically be able to solve certain classes of problems much faster than a classical computer. Moreover, quantum computers can solve problems that are not feasible on classical computers because of their superposition characteristic. The potential future impact of quantum computing on the current classical computing is enormous. The quantum revolution goes very fast, and the Netherlands is a frontrunner in technology development. We are getting in the ‘quantum ready phase’, so we need to be prepared for the ‘quantum advantage phase’ (3-5 years) where quantum technology will be applied towards mainstream.
Goals of the project
We aim to support Dutch researchers to take early and competitive advantage of quantum computing developments and facilities while these become available. Furthermore, we want to
- understand the applicability for scientific applications
- stimulate and support the development of quantum applications
- understand the required expertise and tools to ‘transform’ regular applications into quantum applications
- support access and use of quantum simulators as well as physical quantum computers (in the future).
We do this by:
- Exploring the applicability in scientific problems with use cases: we are stimulating and supporting 2 use cases, one in quantum chemistry and one in machine learning/artificial intelligence. Both domains are promising quantum application areas and both domains are large application areas of our current supercomputing facilities at SURF. We will evaluate potential, required effort, methods and tools. This way, we are building a set of joint expertise, examples and best practices.
- Supporting education: we offer access to our facilities and examples, and we offer internships at different levels. We also participate in guest lectures.
- Supporting access to and use of quantum applications development environments: we offer a tailored open development and execution environment for hybrid quantum simulations wiht a large number of quantum tools and a broad support of execution of experiments and use cases. More information on this can be found on our userinfo pages.
- Disseminating knowledge: we are interested in creating interest in the Dutch research community through good examples and practices.
1. Stimulating quantum application development
SURF aims to stimulate and support the development of quantum applications in scientific research, in close collaboration with scientific research groups. We would like to evaluate the potential, understand the required expertise, efforts, methods and tools to develop quantum applications, to create good examples and best practices. For this purpose, SURF currently defines and supports 2 use cases for quantum application development, one in the area of computational chemistry, and one in the area of quantum machine learning. Both domains are promising quantum application areas and both domains are currently large applications areas of our current supercomputing facilities at SURF.
Collaborate with us
We invite researchers to collaborate with us on quantum application developments and to define a joint project with technical and financial support. It is an opportunity for research groups interested and willing to invest in quantum application development for their research field. SURF is able to support one project in computational chemistry and one project in quantum machine learning. Projects will be defined based on initial discussions with potential interested research groups. The final project proposal will be jointly defined, and will need to contribute sufficiently to the purpose described above.
2. Quantum Inspire quantum computing platform
QuTech has launched a quantum computing platform to help you explore the opportunities and (future) power of quantum computation. Users get access to various technologies to perform quantum computations and learn the principles of quantum computing. Large algorithms can be executed on the national supercomputer Cartesius at SURF.
3. Contributing to the development of the quantum internet
The future quantum internet will provide radically new internet applications by enabling quantum communication between any two points on Earth. The Quantum Internet Alliance (QIA) will create a blueprint for a pan-European quantum internet by developing the technology needed. SURF is one of the partners in the QIA project. QuTech coordinates the QIA project.
SURF is contributing to the project through the development and execution of a fast and scalable simulator for quantum networks (NetSquid), high performance computing expertise, development efforts, and providing access to the national supercomputer facilities. In addition, we support the researchers of Delft University with our knowledge of and experience with very accurate time synchronisation (less than 1 nanosecond) over long distances, and with access to our dark fiber infrastructure.
Project team SURF
Walter de Jong