Training and Research
PhD Programme Courses/classes
This page shows the PhD course's training activities for the academic year 2024/2025. Further activities will be added during the year. Please check regularly for updates!
Modelli dinamici e simulazione di sistemi multibody
Credits: 5
Language: English
Teacher: Iacopo Tamellin
Advanced techniques for acquisition of biomedical images
Credits: 1
Language: Ingelese
Teacher: Pietro Bontempi, Federico Boschi
Theranostics: from materials to devices
Credits: 1
Language: english
Teacher: Nicola Daldosso, Tommaso Del Rosso
Nanomaterials: synthesis, characterization and applications
Credits: 1
Language: English
Teacher: Francesco Enrichi, Tommaso Del Rosso
Brain Computer Interfaces
Credits: 3
Language: Inglese
Teacher: Silvia Francesca Storti
Algorithmic motion planning in robotics
Credits: 1
Language: Italian
Teacher: Paolo Fiorini
Data visualization
Credits: 1
Language: Inglese
Teacher: Andrea Giachetti
Modellazione e analisi 3D
Credits: 1
Language: Inglese
Teacher: Andrea Giachetti
Sistemi Ciber-Fisici nell’Industria 4.0: Modellazione, Reti e Intelligenza
Credits: 3
Language: English
Teacher: Enrico Fraccaroli
Modelli di Intelligenza Artificiale Spiegabile: stato dell'arte, promesse e sfide
Credits: 2.5
Language: Inglese
Teacher: Gloria Menegaz
Foundation of Robotics Autonomy
Credits: 1
Language: Italian
Teacher: Paolo Fiorini
Generative AI
Credits: 1.5
Language: English
Teacher: Francesco Setti
Modeling and Verification of Digital Systems
Credits: 1.5
Language: Italian
Teacher: Franco Fummi, Nicola Bombieri, Graziano Pravadelli
Soft robotics: from nature to engineering
Credits: 1.5
Language: English
Teacher: Francesco Visentin
Techniques and algorithms for biomechanics of movement
Credits: 2.5
Language: English
Teacher: Roberto Di Marco
Modelli di Intelligenza Artificiale Spiegabile: stato dell'arte, promesse e sfide (2024/2025)
Teacher
Referent
Credits
2.5
Language
Inglese
Class attendance
Free Choice
Location
VERONA
Learning objectives
Artificial Intelligence has become a fundamental instrument in fields like biomedicine and neurosciences, from the discovery of new numerical biomarkers to support to the diagnosis. In the last decades, large multidisciplinary collaborations and long-term multimodal studies as, e.g., ADNI, ENIGMA, and UK Biobank, made possible to access big repositories of different type of data like images and genetics information. Such an availability designates deep learning as particularly attractive to represent the complex relationships underlying many biological processes. However, despite the undeniable advantages of deep learning models like deep neural networks, the complexity of their architecture makes mandatory to obtain explanations favoring the interpretability, especially in medicine, healthcare and neuroscience fields. For this reason, the eXplainable Artificial Intelligence (XAI) is fundamental to explain how the model reached a specific outcome, how the features contributed, and to what extent the model is confident about the decision. This course aims at providing the students knowledge about the explainable models at the state of the art that are mostly exploited in the field, providing both theoretical bases and implementation tools. Especially, the students will learn how to deal with explainable AI when applied to interpret deep learning models assessed for extracting information from multi-dimensional heterogeneous and noisy data.
Prerequisites and basic notions
Fundamentals of signal and image processing, fundamentals of machine learning. Python.
Program
Program:
Part 1: Promises
• eXplainable Artificial Intelligence from scratch
• A hint into agnostic post-hoc explainability models (e.g. feature importance, occlusions)
• Neural networks in the light of explainability (e.g. visualization methods, attribution methods, gradient-based methods)
Part 2: Challenges
• Validation of XAI outcomes
Bibliography
Didactic methods
In person.
Learning assessment procedures
Project related to the topics covered.
Assessment
Critical analysis of the methods learned
Ability to apply the methods learned to concrete problems Quality of presentation
Criteria for the composition of the final grade
Pass/Fail