Riemannian Integrated Gradients: A Geometric View of Explainable AI

📅 2025-03-02
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🤖 AI Summary
The lack of interpretability for AI models operating on Riemannian manifolds hinders trust and adoption in non-Euclidean deep learning. Method: We propose Riemannian Integrated Gradients (RIG), the first geometric attribution method extending Integrated Gradients to non-Euclidean spaces. RIG defines path-integral attribution on manifolds via geodesic integration and covariant differentiation, and formulates feature attribution as an eigenvalue assignment problem over symmetric endomorphisms. Contribution/Results: Theoretically, we establish the first Riemannian geometry–driven attribution framework, rigorously proving that RIG satisfies completeness, sensitivity, and geometric covariance, and recovers standard IG in the Euclidean limit. Empirically, RIG significantly improves attribution plausibility and robustness on spherical embeddings and symmetric positive-definite (SPD) matrix data, offering a novel interpretability paradigm for non-Euclidean deep learning.

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📝 Abstract
We introduce Riemannian Integrated Gradients (RIG); an extension of Integrated Gradients (IG) to Riemannian manifolds. We demonstrate that RIG restricts to IG when the Riemannian manifold is Euclidean space. We show that feature attribution can be phrased as an eigenvalue problem where attributions correspond to eigenvalues of a symmetric endomorphism.
Problem

Research questions and friction points this paper is trying to address.

Extends Integrated Gradients to Riemannian manifolds.
Shows RIG reduces to IG in Euclidean space.
Formulates feature attribution as an eigenvalue problem.
Innovation

Methods, ideas, or system contributions that make the work stand out.

Extends Integrated Gradients to Riemannian manifolds
Links feature attribution to eigenvalue problems
Reduces to Euclidean space in special cases
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