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Initial exploration into the critical role of uncertainty quantification (UQ) within the realm - of computer vision (CV): participants will gain an understanding of why it’s essential to consider uncertainty in CV, especially concerning decision-making in complex + of computer vision (CV): participants will gain an understanding of why it’s essential to consider + uncertainty in CV, especially concerning decision-making in complex environments. We will introduce real-world scenarios where uncertainty can profoundly impact model performance and safety, setting the stage for deeper exploration through out the tutorial.
In this part, we will journey through the evolution of UQ techniques, starting - from classic approaches such as maximum a posteriori estimation to the more ellaborate Bayesian Neural Networks. The participants will grasp the conceptual foundations + from classic approaches such as maximum a posteriori estimation to the more ellaborate Bayesian Neural + Networks. The participants will grasp the conceptual foundations of UQ, laying the groundwork for the subsequent discussions of Bayesian methods.
- This is the core part, which will dive into the process of estimating the posterior distribution of BNNs. The participants + This is the core part, which will dive into the process of estimating the posterior distribution of BNNs. + The participants will gain insights into the computational complexities involved in modeling uncertainty through a comprehensive overview of techniques such as Variational Inference (VI), Hamiltonian Monte Carlo (HMC), and Langevin Dynamics. Moreover, we will explore @@ -118,19 +121,21 @@
- Here, we will present recent techniques to improve the computational efficiency of BNNs for computer vision tasks. + Here, we will present recent techniques to improve the computational efficiency of BNNs for computer vision + tasks. We will present different forms of obtaining BNNs from a intermediate checkpoints, weight trajectories during a training run, different types of variational subnetworks, etc., along with their main strenghts and limitations.
- This segment focuses on post-hoc inference techniques, with a focus on Laplace approximation. The participants +
+ This segment focuses on post-hoc inference techniques, with a focus on Laplace approximation. The + participants will learn how Laplace approximation serves as a computationally efficient method for approximating the posterior distribution of Bayesian Neural Networks.
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In the final session, participants will learn how to evaluate the quality of UQ in practi- cal settings. We will develop multiple approaches to assess the reliability and calibra- tion of uncertainty estimates, equipping participants with the tools to gauge the robust- @@ -142,9 +147,10 @@
- This tutorial will also very quickly introduce the TorchUncertainty - library, an uncertainty-aware open-source framework for training models in PyTorch. +
+ This tutorial will also very quickly introduce the TorchUncertainty + library, an uncertainty-aware open-source framework for training models in PyTorch.
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