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Network grant for planning future excellence clusters for groundbreaking technologies

Photo of flowers in front of a building.
Several research teams affiliated with NanoLund are found among the 40 applicants who received funding from the Swedish Research Council for planning future excellence clusters for groundbreaking technologies. Photo: Evelina Lindén

Several NanoLund networks were chosen when the Swedish Research Council decided on the applications to be awarded network grants for planning future excellence clusters for groundbreaking technologies.

The network grant call was the first step in a government initiative to invest in clusters of excellence for groundbreaking technologies. The total grant amount is 48 million SEK.

“It has been incredibly exciting to see the breadth of Swedish technologies research! The response to this initiative has been very strong, with 191 applications for the network grant,” says Marika Edoff, Secretary General for Engineering Sciences at the Swedish Research Council.

Quantum sensing, adaptive soft material systems and advanced semiconductors

Among the 40 applicants, several research teams affiliated with NanoLund are found. Martin Leijnse and his team are funded for the project “Quantum sensing, metrology, and control” (Kvantavkänning, metrologi och kontroll), Emma Sparr’s team (including Karen Edler and Heiner Linke, among others) for the project “Adaptive soft material systems for technological innovations” (Adaptiva mjuka materialsystem för teknologiska innovationer), and Lars-Erik Wernersson’s team for “Advanced Semiconductors: Innovation, Testing, and Value Chains” (Avancerade Halvledare: Innovation, Testning och Värdekedjor). Fredrik Höök’s team is funded for “Quantitative single-molecule microscopy to advance biomedicine” (Kvantitativ enkelmolekylär mikroskopi för att främja biomedicin), and Anders Mikkelsen and Heiner Linke are part of Linköping-based Magnus Berggren’s project “Minimal synthetic brain” (Minimal syntetisk hjärna). Magnus Borgström is part of Linköping-based Feng Gao’s “Cluster of excellence for future solar cell technology” (Excellenskluster för framtidens solcellsteknik).

“The network we propose will plan for a cluster that will form the backbone of an ecosystem supporting research, innovation, and development in quantum sensors. We will bring together all the key players in Sweden working with quantum sensors – researchers, companies, infrastructures, and organizations – to participate in the planning work. The work will take the form of joint workshops and digital meetings in smaller groups, based on the participants’ specialist expertise and interests,” says Martin Leijnse.

“To enable transformative technologies based on adaptive soft matter by controlling responsive switch mechanisms at the molecular level through finely tuned intermolecular interactions and precise molecular engineering, the anticipated breakthroughs could benefit key areas such as drug development, food technology, molecular sensing, and sustainable chemistry and energy solutions,” says Emma Sparr.

The Swedish Research Council received applications from 17 universities and institutes and decided to give funding to eight applicants from Lund University.

The press release on the Swedish Research Council’s website 

Martin Leijnse on the cluster “Quantum sensing, metrology, and control”

Photo of a man.
Martin Leijnse and his team has got funding from the Swedish Research Council for planning a cluster called “Quantum sensing, metrology, and control”.

“Research within the proposed cluster focuses on understanding and utilizing the fundamental properties of the smallest building blocks of existence, as described by quantum physics, in order to develop new sensors and measuring instruments that are more precise, faster, and more efficient than those available today. There are already several examples of applications based on these so-called quantum sensors, including atomic clocks, which are used, for example, in GPS navigation, and magnetometers, which are used, for example, in medicine to measure the small magnetic fields created by electrical currents in the brain. Other examples of applications for quantum sensors include mineral exploration and the measurement of gravitational waves in astrophysics.

The rapid development of quantum technology, the field of research that designs and controls systems whose properties are determined by quantum physics, is creating opportunities for entirely new types of quantum sensors. This, in turn, opens up new applications in fields such as medicine, biology, materials science, defense technology, and geology. Sweden currently has several internationally renowned research groups working on quantum sensors. For Sweden to become a world leader in quantum sensors, it is essential to have a well-functioning ecosystem that supports research, innovation, and development. This encompasses everything from strong basic research and advanced infrastructure in the form of laboratories and supporting technology to well-developed processes for taking new sensor concepts from idea to prototype and on to innovation and spin-off companies.

The network we propose will plan for a cluster that will form the backbone of such an ecosystem. We will bring together all the key players in Sweden working with quantum sensors – researchers, companies, infrastructures, and organizations – to participate in the planning work. The work will take the form of joint workshops and digital meetings in smaller groups, based on the participants’ specialist expertise and interests.”