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This research proposes a novel framework for explaining machine learning predictions on time-dependent outputs, addressing the limitations of existing methods that treat functional data as independent scalar points. By generalizing functional decomposition to Hilbert-valued prediction functions, the authors enable time-aware explanations that capture dependencies across output components in applications like demand forecasting and volatility prediction. The work advances interpretability techniques specifically for complex, multivariate temporal models rather than focusing on standard scalar predictions.
A Hilbert-Valued Functional Decomposition Framework for Explaining Time-Dependent Outputs
arXiv:2609.11295v1 Announce Type: cross Abstract: Feature-based explanations quantify features' influence on model predictions, but are primarily designed for scalar outputs. In many applications, however, outputs are functional or multivariate, such as time-dependent trajectories in demand forecasting. Consequently, existing approaches typically explain each output location independently, ignoring dependencies across the output components. We address this limitation by developing a unified framework for feature-based explanations of time-dependent outputs. Specifically, we generalize functional decomposition to Hilbert-valued prediction functions and extend an existing feature-based explanation framework to this setting. Our framework introduces kernel-based output representations that enable time-dependency-aware explanations at multiple levels of temporal granularity, including time-specific, time-resolved, and time-aggregated, while providing a unified view in which existing methods arise as special cases. We validate our framework on synthetic and real-world data, including intraday financial market volatility prediction and energy demand forecasting.
Abstract:Feature-based explanations quantify features' influence on model predictions, but are primarily designed for scalar outputs. In many applications, however, outputs are functional or multivariate, such as time-dependent trajectories in demand forecasting. Consequently, existing approaches typically explain each output location independently, ignoring dependencies across the output components. We address this limitation by developing a unified framework for feature-based explanations of time-dependent outputs. Specifically, we generalize functional decomposition to Hilbert-valued prediction functions and extend an existing feature-based explanation framework to this setting. Our framework introduces kernel-based output representations that enable time-dependency-aware explanations at multiple levels of temporal granularity, including time-specific, time-resolved, and time-aggregated, while providing a unified view in which existing methods arise as special cases. We validate our framework on synthetic and real-world data, including intraday financial market volatility prediction and energy demand forecasting.
Machine Learning (stat.ML); Machine Learning (cs.LG)
arXiv:2609.11295 [stat.ML]
(or arXiv:2609.11295v1 [stat.ML] for this version)
https://doi.org/10.48550/arXiv.2609.11295 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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