Uncertainty Quantification

Also known as UQ

Overview

Uncertainty quantification studies what is unknown in a prediction or inference, where that uncertainty comes from, and how it should affect decisions. Common approaches include Bayesian methods, ensembles and Gaussian processes, which model predictive distributions; conformal prediction, which provides distribution-free coverage guarantees; and calibration methods that adjust confidence or intervals against observed errors. Researchers apply these tools to settings from medical imaging and physical simulations to language models, evaluating calibration, coverage, error detection and performance under distribution shift. A central challenge is that well-calibrated or narrow estimates do not always identify actual failures, so methods must be tested in the conditions and for the decisions where they will be used, while balancing reliability against computational cost.

Latest papers

CardsList

663 papers58 papers in the last four weeks, level with the four weeks before. 0.3% of all new papers.

  1. Distribution-Free Uncertainty Quantification for Kernel Methods by Gradient Perturbations

    Dec 23, 2018Balázs Csanád Csáji, Krisztián Balázs KisConfidence Region EstimationUncertainty Quantification

  2. Analytical Standard Errors for Exploratory Factor Solutions

    Nov 12, 2018Xingwei Hu, Caihong Hu, Cheng-Kuang WuUncertainty QuantificationDimensionality Reduction

  3. Estimating Uncertain Spatial Relationships in Robotics

    Mar 27, 2013Randall Smith, Matthew Self, Peter CheesemanUncertainty QuantificationRobot State Estimation