Research

A broad description of my research interests and a list of my publications and preprints.

Research Interests

An aspect about the field of operator algebras that has always fascinated me is its connection to the foundations of quantum theory and specifically quantum information. Now, I am particularly interested in applying my mathematical foundation to current challenges in quantum computing.

Throughout my graduate studies, I have explored this connection to quantum information through a pure mathematical lens. For example, I have been working on projects related to quantum graphs. Quantum graphs arise as a noncommutative generalization of classical graphs in graph theory. They have first been introduced as a generalization of confusability graphs in error correction. There are two main approaches to this noncommutative generalization, which have been shown to be equivalent in the past. The first approach involves a quantization of the edge relation and the second is given by a quantiziation of the adjacency matrix. I am mainly interested in finding appropriate generalizations of concepts in graph theory to the theory of quantum graphs. Additionally, I have recently started to explore aspects of complexity theory in connection to non-local games.

On the operator algebraic side, my thesis concerned C\(^*\)-algebras arising from partial C\(^*\)-dynamical systems. In particular, I studied the ideal structure of crossed product C\(^*\)-algebras using injective envelope techniques. The rich structure of injective envelopes allows for powerful tools to connect properties of the reduced crossed product such as the intersection property to dynamical properties of the action. You can find my thesis here.

Preprints

Published articles