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Head of Group
Research Team
- Ander Biguri: Tomographic reconstruction, particularly in Cone Beam Computed Tomography.
- Anna Breger: Mathematical image processing in medical problems with diverse data types, image quality assessment.
- Zhongying Deng: Machine learning for brain and mental health.
- Chaoyu Liu: Machine learning for PDEs and image processing.
- Michael Roberts: Image processing, machine learning, health applications, translation into clinic.
- Priscilla Canizares Martinez: Theoretical physics, machine learning, particularly in gravitational-wave astronomy.
- Moshe Eliasof: Machine learning for image segmentation and processing.
- Davide Murari: Application of neural networks, dynamical systems, and approximation theory to image analysis, computational physics, and symplectic integration.
Ph.D. Students
Visitors
- Chu Chen: Solving inverse problems in dynamical systems for biomedical imaging, machine learning for tomographic reconstruction.
- Ziqi Qin: Non-smooth optimisation.
- Mohamed Mikhail Kennerly: Domain adaptation for adverse weather conditions and semi-supervised learning.
- Prof Simon Foucart: Mathematical data science with a strong approximation theory influence.
- Yaofang Liu: Diffusion modelling, geometric deep learning
- Honglei Brinkmann: Image processing with deep learning method
Former Members
- Jan Lellman: Machine-learning methods for modelling continuous structural heterogeneity in cryo-EM reconstruction.
- Johannes Schwab: Machine-learning methods for modelling continuous structural heterogeneity in cryo-EM reconstruction.
- Carlos Esteve-Yagüe: Partial differential equations and inverse problems.
- Julian Gilbey: Optical character recognition (OCR) in distorted images, missing data imputation, machine learning, inverse problems (in the BloodCounts! consortium).
- Hong Ye Tan: Designing provably convergent algorithms from the geometry of data.
- Lihao Liu: Advancing 3D segmentation: deep learning techniques for video and medical imaging.
- Yijun Yang: Analysis mammography images for breast cancer classification.
- Tobias Wolf: Inverse problems through decomposition.
- Jiahao Huang: Medical image analysis: object detection, reconstruction, super-resolution, segmentation.
- Jan Stanczuk: Deep generative modelling, computational aspects of diffusion models, generative adversarial networks.
- Nina Dekoninck Bruhin: Functional data analysis in medical imaging.
- Georgios Batzolis: Geometry of data, diffusion models, riemannian geometry.
- Thomas Buddenkotte: Deep learning, segmentation of high grade serous ovarian cancer on computed tomography images.
- Willem Diepeveen: Riemannian geometry for inverse problems in cryogenic electron microscopy.
- Ferdia Sherry: Bilevel optimisation.
- Angelica I. Aviles-Rivero: Inverse problems, medical imaging, computational analysis and machine learning.
- Kweku Abraham: Theoretical guarantees for machine learning, frequentist validity of Bayesian procedures, false discovery rates, and hidden Markov models.
- Chaoyan Huang: Convergence of plug-and-play methods for inverse problems.
- George Rafael Domenikos: Thermodynamics, statistical physics and cryogenics.
- Sören Dittmer: Inverse problems, clinical time-series data, topology optimisation.
- Jongmin Yu: Machine learning for brain and mental health.
- Nicolas Boulle: Numerical analysis and deep learning.
- Rui Guo: Remotes sensing application in agriculture disaster.
- Fangliangzi Meng: Integration of radiomics and genomics, multiomics data analysis and machine learning.
- Maximilian Kiss: CT reconstruction.
- Jim Denholm: Computer vision methods to analyse histopathological image data to coeliac disease.
- Jan Cross-Zamirski: Cross-modality profiling of high-content microscopy images with deep learning.
- Zhenda Shen: Implicit neural representations.
- Ben Schreiber: Deep learning, coeliac disease diagnosis.
- Tamara Grossmann: Deep learning, PDE-based image analysis, total variation flow, medieval paper analysis.
- Laurent Pin: Graph-based medical image segmentation.
- Andrey Bryutkin: Graph transformers for PDEs.
- Xiaoyu Wang: Machine learning for cell tracking in light microscopy.
- Ziruo Cai: Uncertainty quantification in medical imaging, optimisation, machine learning.
- Junqi Tang: Optimisation, deep learning, medical imaging.
- Aurelie Bugeau: Image and video processing and analysis.
- Nicolas Papadakis: Computer vision, computational photography, oceanography, medical imaging.
- Nadja Gruber: Chan-Vese models for medical image segmentation.
- Jing Zou: Image registration.
- Jean Prost: Hierarchical VAEs for image restoration.
- Simone Saitta: Physics informed denoising and super-resolution of 4D flow MRI.
- Chao Li: Neuroimaging, multi-omics, computational neuroscience, machine learning & deep learning.
- Subhadip Mukherjee: Machine learning, inverse problems in imaging, optimisation, signal processing.
- Malena Sabaté Landman: Inverse Problems, mathematical Imaging, numerical linear algebra, generative models, functional data analysis.
- Rashmi Murthy: Inverse problems, applied partial differential equations.
- Lisa Kreusser: Partial differential equations, data analysis, and mathematical formulations for machine learning.
- Tatiana Bubba: Computational inverse problems with applications to medical imaging and spent nuclear fuels imaging.
- Debmita Bandyopadhyay: Multi-sensor data analysis, forest species mapping, Alpine vegetation dynamics, statistical modelling, machine learning.
- Yury Korolev: Inverse problems, variational methods, mathematical Imaging, theoretical machine learning.
- Mickael Assaraf: Automated graph data augmentation.
- Simone Parisotto: Mathematics for cultural heritage, inverse problems, anisotropic variational models and PDEs.
- Stefano van Gogh: Leverage data-driven methods to regularise the tomographic reconstruction problem.
- Rihuan Ke: Inverse problems in adaptive optics and post-processing, image processing and numerical linear algebra.
- Marcello Carioni: Inverse problems, machine learning, calculus of variations.
- Hankui Peng: subspace clustering, constrained clustering, active learning, image recognition, text mining.
- Lei Zhu: Computer vision, image and video processing, medical imaging, deep learning.
- Derek Driggs: Accelerated optimisation algorithms for machine learning and image processing.
- Jonathan Williams: Analysis of airborne imaging data.
- Philip Sellars: Image classification with graph-based semi-supervised learning.
- Sebastian Lunz: Learning regularisation functionals and operator corrections.
- Christian Etmann: Inverse problems, deep learning, medical imaging, adversarial examples.
- Jonas Latz: Inverse problems, uncertainty quantification.
- Kasia Targonska-Hadzibabic: Mathematics for cultural heritage.
- Madeleine Kotzagiannidis: Analysis and exploitation of geometric structure in data for problems in signal processing and machine learning.
- Hugo Blanc: Semi-supervised image classification for hyperspectral data.
- Wei Tang: A hybrid model for vessel skeleton extraction.
- Ula Komorowska: PDEs, finite elements, deep learning.
- Rob Tovey: Mathematical challenges in electron tomography.
- Jingwei Liang: Non-smooth optimisation, image processing and machine learning.
- Matthew Thorpe: optimal transport, geometric deep learning
- Erlend Skaldehaug Riis: Geometric numerical integration for optimisation.
- Veronica Corona: Improving diagnostics by linking light microscopy with PET/MRI using novel mathematical methods.
- Jonathan Ang: Learning latent representations via a DeepWalk approach.
- Jianchao Zhang: Superpixel segmentation.
- Marianne de Vriendt: Learning to classify medical images with minimal supervision.
- Timothée Schmoderer: Joint hybrid variational models.
- Caroline Zhu: Learning regularisation for optical flow.
- Rosa Kowalewski: Deep neural networks for image registration.
- Joana Grah Mathematical image analysis for cancer research applications.
- Rob Hocking: Image and video inpainting.
- Sebastian Neumayer: Indirect image matching for tomographic inversion under shape priors.
- Georg Maierhofer: Learning an optimal sampling pattern for MRI.
- Vladimir Vankov: Classification and standardisation of ancient pottery by machine learning and geometric analysis.
- Emile Okada: Building imaging devices: from hardware to software.
- Chris Irving: Building imaging devices: from hardware to software.
- Wuhyun Sohn: Seismic imaging.
- Yoeri Boink: Motion analysis.
- Sam Thomas: InSAR phase unwrapping.
- Verner Vlacic: Dynamic image regularisation.
- Juheon Lee: Mapping individual trees from airborne multi-sensor imagery.
- Luca Calatroni: PDE models for imaging problems and applications.
- Evangelos Papoutsellis: First-order gradient regularisation methods for image restoration.
- Marie Autume: Art restoration.
- Veronica Corona: Multi-spectral characterisation of thalamic nuclei with ultra-high field MRI.
- Kostas Papafitsoros: Higher-order regularity in imaging.
- Maria Hänel: Optimal placement of cameras.
- Goezde Sarikaya: Reconstruction of MRI data.
- Stefi Anita: Segmentation for radiotherapy treatment planning.
- Ziad Kobeissi: Generating artificial fingerprints.
- Hendrik Dirks: Imaging of intracellular flows.
- Rien Lagerwerf: TGV-type inpainting for limited-angle tomography.