Traditional data-driven machine learning approaches show very high performance even if their internal mechanisms are very cryptic (“black-box” models). However, in some critical contexts, model interpretability is mandatory to explain the learned functionality, becoming even a legal requirement. The emerging field of eXplainable Artificial Intelligence (XAI) aims at developing new methods to make AI technologies more transparent. This work explores the relevant role that geometric calculus, based on Clifford geometric algebra, can play in obtaining more interpretable AI systems. We outline state-of-the-art innovative approaches that exploit geometric calculus to reformulate neural network models. Leveraging the simplicity and intuitiveness of the underlying mathematical framework, these sys-tems allow for clear geometric interpretations of their decision-making processes, while preserving prediction accuracy. Our investigations suggest that empowering deep learning models with geometric calculus capabilities paves the way for both intrinsically interpretable and high-performance AI systems.

Innovative Models Based on Geometric Calculus for Explainable Artificial Intelligence

Silvia Franchini
;
Salvatore Vitabile
2026

Abstract

Traditional data-driven machine learning approaches show very high performance even if their internal mechanisms are very cryptic (“black-box” models). However, in some critical contexts, model interpretability is mandatory to explain the learned functionality, becoming even a legal requirement. The emerging field of eXplainable Artificial Intelligence (XAI) aims at developing new methods to make AI technologies more transparent. This work explores the relevant role that geometric calculus, based on Clifford geometric algebra, can play in obtaining more interpretable AI systems. We outline state-of-the-art innovative approaches that exploit geometric calculus to reformulate neural network models. Leveraging the simplicity and intuitiveness of the underlying mathematical framework, these sys-tems allow for clear geometric interpretations of their decision-making processes, while preserving prediction accuracy. Our investigations suggest that empowering deep learning models with geometric calculus capabilities paves the way for both intrinsically interpretable and high-performance AI systems.
2026
Istituto di Calcolo e Reti ad Alte Prestazioni - ICAR - Sede Secondaria Palermo
9789819503506
9789819503513
Explainable AI; Geometric Calculus; Geometric Algebra; Machine Learning; Deep Learning
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.14243/583647
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