A Convex Approximation Framework for Neural Likelihood-Based Bayesian Inverse Problems
Many problems in science and engineering are difficult to model accurately, either due to unknown physical mechanisms, poorly quantified measurement uncertainty, or prohibitive computational costs of high-fidelity simulations. These challenges limit the applicability of classical probabilistic inference methods such as Markov chain Monte Carlo, especially in high-dimensional Bayesian inverse problems. As data from scientific experiments become increasingly available, machine learning methods offer a flexible alternative to explicit parametric modelling. We study neural likelihood approximation
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- PossiblePossibly related (embedding) · 49%js05212/BayesianDeepLearning-Survey →
- PossiblePossibly related (embedding) · 49%Principled approaches for extending neural architectures to function spaces for operator learning →
- PossiblePossibly related (embedding) · 46%SciML/NeuralPDE.jl →
- PossiblePossibly related (embedding) · 46%google-research/hyperbo →
- LinkedLinked via arxiv author · 85%Fabian Schneider →
“A Convex Approximation Framework for Neural Likelihood-Based Bayesian Inverse Problems”
- LinkedLinked via arxiv author · 85%Tapio Helin →
“A Convex Approximation Framework for Neural Likelihood-Based Bayesian Inverse Problems”
- LinkedLinked via arxiv author · 85%Leila Taghizadeh →
“A Convex Approximation Framework for Neural Likelihood-Based Bayesian Inverse Problems”
- FuzzyOverlapping authors or contributors · 62%mastra-ai/mastra →
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