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Dr. Georgios Kaissis

Reliable AI

The Team Reliable AI develops next-generation trustworthy artificial intelligence algorithms for medical applications. We employ advanced deep learning techniques and work on the intersection between trustworthy and probabilistic machine learning.

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Our Topics

Our group develops next-generation privacy-preserving and trustworthy artificial intelligence algorithms for medical applications.

AI in Medicine requires large, diverse, and representative datasets to train fair, generalisable and reliable models. However, such datasets contain sensitive personal information. Privacy-preserving machine learning bridges the gap between data utilisation and data protection by allowing the training of machine learning models on sensitive data while offering formal privacy guarantees. 

Our group focuses on applications of Differential Privacy to machine learning and deep learning, both on unstructured datasets such as images and on structured data such as tabular and graph databases. Moreover, we develop techniques for mitigating privacy-utility and privacy-performance trade-offs. Furthermore, we investigate attacks against collaborative machine learning protocols (such as federated learning) and develop defences against them.

Publications

In:. Gewerbestrasse 11, Cham, Ch-6330, Switzerland: Springer International Publishing Ag, 2023. 147-156 (Lect. Notes Comput. Sc. ; 14394 LNCS)

Sideri-Lampretsa, V. ; Zimmer, V.A. ; Qiu, H. ; Kaissis, G. ; Rueckert, D.

MAD: Modality Agnostic Distance Measure for Image Registration.
2023 in
In: (AISec 2023 - Proceedings of the 16th ACM Workshop on Artificial Intelligence and Security, 30 November 2023, Copenhagen, Denmark). 2023. 11-22

Hölzl, F.A. ; Rueckert, D. ; Kaissis, G.

Equivariant Differentially Private Deep Learning: Why DP-SGD Needs Sparser Models.
2023 in
In: (AISec 2023 - Proceedings of the 16th ACM Workshop on Artificial Intelligence and Security, 30 November 2023, Copenhagen, Denmark). 2023. 55-65

Nasirigerdeh, R. ; Rueckert, D. ; Kaissis, G.

Utility-preserving federated learning.

Collaboration Opportunities

We are always looking for talented group members who wish to work with us as part of their research project or thesis.

We are especially interested in collaborators with backgrounds in:

  •     Applied or theoretical machine learning/ deep learning
  •     Cryptography
  •     Signal processing and information theory
  •     Pure and applied mathematics/ theoretical computer science
  •     Scientific/numerical computing and probabilistic programming

If you are interested in collaborating with us, please write us an email.

Contact Office

Sandra Mayer

Office & Project Management

Building / Room: 35.33, 204