Topology and neuromorphic computing

Research Group Clara Wanjura

Welcome to the Minerva Fast Track Research Group Topology and Neuromorphic Computing

In our Minerva Fast Track Research Group we are exploring research questions at the intersection of quantum optics, solid-state physics and machine learning. Specifically, we are investigating complex systems which can be harnessed for quantum science and technological applications. To this end, we are developing new theories and methods, and we frequently collaborate with our experimental partners.

Scientific overview

In particular, we are following two main lines of research. One of our aims is to understand the role of topology in systems exhibiting gain and loss and how these systems can be harnessed to devise quantum devices such as quantum-limited directional amplifiers and sensors. Specifically, we have shown that non-Hermitian topology corresponds one-to-one with the phenomenon of directional amplification, which is highly sought-after for applications including quantum information processing.

In another line of research, we are investigating energy-efficient neuromorphic hardware approaches to machine learning based on optics and photonics with the goal of developing a framework for replacing digital neural networks with physical systems performing the necessary computations. For instance, we recently proposed a framework for non-linear neuromorphic computing based on purely linear scattering. You can learn more about our work here.

Short video about our work on neuromorphic computing

Join our group

If you are interested in exploring any of the rapidly developing topics as a Bachelor’s or Master’s student, please email clara.wanjura@mpl.mpg.de. We welcome applications all year round!

Contact

Minerva Fast Track Research Group Clara Wanjura

Max Planck Institute for the Science of Light
Staudtstr. 2
91058 Erlangen, Germany

clara.wanjura@mpl.mpg.de

Research team leader Dr. Clara Wanjura

“Creativity plays an important role in our research, helping us approach complex problems from a new perspective.”

Neural networks made of light

Scientists propose a new way of implementing a neural network with an optical system which could make machine learning more sustainable in the future. The researchers at MPL have published their new method in Nature Physics, demonstrating a method much simpler than previous approaches.

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New topological metamaterial amplifies sound waves exponentially

An international team of researchers have realized a new type of metamaterial through which sound waves flow in an unprecedented fashion. It provides a novel form of amplification of mechanical vibrations, which has the potential to improve sensor technology and information processing devices.

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A dual carriageway for signals

Unidirectional transport of signals in pairs of "one-way streets": An international research team including Clara Wanjura from the Max Planck Institute for the Science of Light have published a new study in Nature Physics.

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