Fortuna: A library for uncertainty quantification in deep learning
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Fortuna is an open-source library for uncertainty quantification in deep learning, addressing the gap between theory and practice.
A comprehensive index of artificial intelligence and machine-learning research with AI-generated summaries, citation metrics, and direct links to papers and code.
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Fortuna is an open-source library for uncertainty quantification in deep learning, addressing the gap between theory and practice.
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AutoDEUQ automates deep ensemble construction with uncertainty quantification, evaluated on 10 regression benchmark datasets.
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Proposes a fast, scalable nonparametric method to quantify uncertainty in predictions from a single deterministic neural network.
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The paper presents methods for efficient and effective uncertainty quantification in large language models, aiming to provide scalar estimates of answer correctness.
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The paper proposes a Bayesian neural network method for uncertainty quantification in classification, applied to biomedical image segmentation.
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This paper explores uncertainty quantification for black-box large language models in natural language generation, addressing a previously under-explored problem.
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The paper analyzes uncertainty calibration of process reward models, extending evaluation to a 72B parameter variant on MATH500 and AIME24-25 datasets.
Lee D. Erman, Frederick Hayes‐Roth, Victor Lesser, et al.
Hearsay-II introduced a blackboard-style framework that coordinates independent knowledge sources to resolve uncertainty in speech understanding, influencing cooperative AI problem-solving.
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This paper presents methods, metrics, and comparisons for uncertainty quantification in scientific machine learning, along with an open-source Python library.
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Applying self-supervised learning to improve robustness and uncertainty of deep learning models beyond purely supervised methods.
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This paper introduces an uncertainty-aware reward model that teaches reward models to recognize and quantify their own uncertainty, improving alignment of LLMs with human expectations.
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This paper introduces a scalable safe long-horizon planning method that uses copulas to model temporal correlations in uncertainty, providing probabilistic guarantees via conformal prediction.