When? December 4, 2025
Where? Room A108, Polo Ferrari 1, University of Trento
08:30 — Registration
08:45-09:00 — Welcome & Introduction
09:00-10:00 — Keynote (Prof. Henning Müller)
10:00-10:20 — Coffee break
10:20-13:00 — Oral sessions
13:00-14:00 — Buffet lunch
14:00-15:00 — Keynote (Prof. Katja Bühler)
15:00-17:40 — Oral sessions
17:40 — Closing & Aperitif
10:20-13:00
(10 presentations, 15 min each — 2 h 30 min + 10 min overhead)
Measuring Explainable AI: A Quantitative Analysis of XAI Methods for Melanoma Classification — Nath, John, Iacca
Developing a Semantic and Explainable Artificial Intelligence System to Improve Clinical Prioritization Within Homogeneous Waiting Groups (HWG) in the Italian Healthcare System — Tombolini, Ponte, Mariotti, Dragoni
Efficient Ensemble Approaches for Explainable Artificial Intelligence (XAI) in Image Classification — Shafi, Iacca
XLUS-ViT: An Explainable Vision Transformer Approach for COVID-19 Lung Ultrasound Classification — Khalid, Iacca
Ethics-by-Design Framework to Support Trustworthy AI in Predicting Prediabetes: The PRAESIIDIUM Case Study — Masetti, Operto, Paglialonga, Gianfreda, Veruggio, PRAESIIDIUM Consortium
SESSION CHAIRS: TOMASSINI, ROSANI
Exploiting the Rashomon Set: Toward Stable and Interpretable MRI Biomarkers for Alzheimer’s Disease — Borsani, Rosani, Abdi, Di Fatta
Low-Field MRI-Based Deep Segmentation of Perivascular Spaces in Parkinson’s Disease — Tomassini, Girardi, Di Giacopo, Quattrocchi, Giorgini
Benchmarking Radiomics, Deep Learning, and Foundation Models for Glioblastoma Survival Prediction — Marasi, Doniselli, Pascuzzo, Aquino, Redaelli, De Momi, Marzullo
Small-scale Disease Progression Model of Glioblastoma via Physics Informed Neural Network — Vinci
Adapting to the Inevitable: Lightweight Volume-Wise Fine-Tuning for Out-of-Distribution Brain Tumor Segmentation — Chaudhry, Tomassini, Giorgini
* Prognostic Modeling in Glioblastoma Using WSI Foundation Models and Transcriptomic Profiles — Rignanese, Sabbatini, Barone, Noei, Pozzi, Manganaro, Ragni, Bovo, Novello, Chierici, Falco, Jurman
SESSION CHAIRS: TOMASSINI, RAIMI
Presentation marked with * will be delivered remotely at the end of the last oral session of the afternoon (approximately 17:00 onwards)
15:00-17:40
(10 presentations, 15 min each — 2 h 30 min + 10 min overhead)
ORAL SESSION III — Data Integration & Clinical Decision Support
A Topological Data Analysis–Informed Machine Learning Framework for Predicting Recovery After Acute Ischemic Stroke Thrombectomy — Rucco, Viticchi, Falsetti, Silvestrini, Polonara
AI-Based Personalization of Diabetic Retinopathy Screening Intervals Through Multimodal Integration — Bresolin, Cocu, Malfatti, Ragni, Bovo, Cagol, Inchiostro, Romanelli, Moroni, Jurman
AI-Based Diagnosis of Colonic Polypoid Lesions From Endoscopic Biopsies — Pozzi, Noei, Zordan, Pegoraro, Bovo, Ragni, Novello, Barbareschi, Jurman
Is Self-Pretraining Really Useful for Medical Time Series? A Transformer-Based Study — Coser, Orvieto, Soda, Zollo
Exploring Acoustic Signatures of Vocal Pathologies: Foundation-Model Speech Representations for Malignant Voice Disorder Detection — Salvaterra, Zen, Oss Emer, Barone, Grosso, Demattè, Perotti, Matassoni, Brutti, Tessadori, Novello, Ioppi, Piccin, Jurman
SESSION CHAIRS: GIRARDI, MARZULLO
ORAL SESSION IV — Robotics & Agentic AI
An Anatomy-Aware Shared Control Approach for Assisted Teleoperation of Lung Ultrasound Examinations — Nardi, Fontanelli, Saveriano, Palopoli, Lamon
Autonomous Robotic Palpation and Abnormality Detection Through Ergodic Exploration — Beber, Lamon, Saveriano, Fontanelli, Palopoli
An Agentic System for Data Harmonization and Augmentation in Clinical Trials — Marzullo, De Momi
* Automating Surgical Debriefing Through Agentic AI — Fumi, Bombieri, Allievi, Bonvini, Chaspari, Zenati, Giorgini
SESSION CHAIRS: TOMASSINI, LAMON
Presentation marked with * will be delivered remotely (approximately 17:00 onwards)
Henning Müller studied medical informatics at the University of Heidelberg, Germany, then worked at Daimler-Benz research in Portland, OR, USA. From 1998-2002 he worked on his PhD degree in computer vision at the University of Geneva, Switzerland with a research stay at Monash University, Melbourne, Australia. Since 2002, Henning has been working for the medical informatics service at the University Hospital of Geneva. Since 2007, he has been a Full Professor at the HES-SO Valais and since 2011 he is responsible for the eHealth unit of the school. Since 2014, he is also Professor at the Medical Faculty of the University of Geneva. In 2015/2016 he was on sabbatical at the Martinos Center, part of Harvard Medical School in Boston, MA, USA to focus on research activities. Henning was coordinator of the ExaMode EU project, the Khresmoi EU project and scientific coordinator of the VISCERAL EU project. Since early 2020, he is also a member of the Swiss National Research Council, where he leads the program committee on thematic and solution-oriented research.
Full Professor in Computer Science and in Radiology
HES-SO Valais-Wallis and University of Geneva
Computational tools analyzing images have mainly used them alone and not in contact with other clinical data. Still much data is available for patients, from lab results to various reports and various other structured data, which puts the patient really into its clinical context. Combining all source has been a challenge for many years but solutions such as vision language models have really made such multimodal analysis much easier and allow for a real integration of all data and thus possibly better decision making.
This Keynote will explain the complementarity of the sources and will give examples from past and ongoing projects.
Katja Bühler is the Scientific Director of VRVis GmbH, a non-profit research centre for Visual Computing in Vienna, Austria. Founded in 2000, VRVis's aim is to promote technology transfer between science and industry. Katja's academic background is in Mathematics (Dipl.math., KIT, Germany) and Computer Science (Dr.techn., TU Vienna, Austria). She joined VRVis as a Senior Researcher in 2002, was promoted to Group Leader of Medical Visualisation in 2003 and became Division Coordinator of Complex Systems in 2010. In recognition of her efforts to realise innovative Visual Computing solutions in close cooperation with industry and science, she received the Austrian "science2business Award" in 2012 and the TU Vienna Women's Award in 2020. As head of the Biomedical Image Informatics Group at VRVis, Katja's scientific research focuses on methods that enable intuitive and efficient access to the information encoded in imaging and related (spatial) data. Together with her interdisciplinary team, she is realising this vision by combining expertise in image analysis, AI, data mining, visualisation, and HCI to develop intelligent, human-centred solutions with a strong application focus on medicine and life sciences. In addition to her work at VRVis, she is a member of the board of Austrian Bioimaging and, most recently, also a member of the board of the Association for the Promotion of Digital Humanism in Vienna.
Scientific Director
Vienna Research Center for Visual Computing
The effective integration of AI-supported decision-making in clinical practice depends on understanding and managing uncertainty, a multifaceted challenge that encompasses reliability, transparency, and trust.
The talk will outline a conceptual and operational framework connecting these elements, illustrating how different forms of uncertainty influence both model performance and clinical adoption. Drawing on recent research, the Keynote will explore strategies to strengthen reliability and interpretability in image-based workflows: from quantifying and propagating uncertainty throughout the decision pipeline to designing explainable mechanisms that render confidence levels explicit and actionable. Approaches for uncertainty-aware learning and validation will be discussed, alongside methods to calibrate trust through transparent interfaces and continuous human-machine feedback loops. Finally, the Keynote will consider how embedding reliability and trustworthiness by design can enable sustainable, responsible, and clinically meaningful AI integration.