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Approximate Inference via Clustering

arXiv 2111.14219 ↗First posted 28 Nov 2021cs.LG stat.MLcited by 0

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Abstract (arXiv)

In recent years, large-scale Bayesian learning draws a great deal of attention. However, in big-data era, the amount of data we face is growing much faster than our ability to deal with it. Fortunately, it is observed that large-scale datasets usually own rich internal structure and is somewhat redundant. In this paper, we attempt to simplify the Bayesian posterior via exploiting this structure. Specifically, we restrict our interest to the so-called well-clustered datasets and construct an approximate posterior according to the clustering information. Fortunately, the clustering structure can be efficiently obtained via a particular clustering algorithm. When constructing the approximate posterior, the data points in the same cluster are all replaced by the centroid of the cluster. As a result, the posterior can be significantly simplified. Theoretically, we show that under certain conditions the approximate posterior we construct is close (measured by KL divergence) to the exact posterior. Furthermore, thorough experiments are conducted to validate the fact that the constructed posterior is a good approximation to the true posterior and much easier to sample from.

Key facts. No citing papers in the map yet (data through 14 Oct 2026). Builds on 11 of its 26 references that are in the map. First posted on arXiv 28 Nov 2021.

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References · 11

  1. 2013Expectation Propagation for approximate Bayesian inferencecited by 174
  2. 2020COPOD: Copula-Based Outlier Detectioncited by 146
  3. 2015Preconditioned Stochastic Gradient Langevin Dynamics for Deep Neural Networkscited by 121
  4. 2015Practical and Optimal LSH for Angular Distancecited by 106
  5. 2020MIMOSA: Multi-constraint Molecule Sampling for Molecule Optimizationcited by 49
  6. 2015Stochastic Expectation Propagationcited by 22
  7. 2014Accelerating Minibatch Stochastic Gradient Descent using Stratified Samplingcited by 21
  8. 2021Network Representation Learning: From Preprocessing, Feature Extraction to Node Embeddingcited by 19
  9. 2015Bridging the Gap between Stochastic Gradient MCMC and Stochastic Optimizationcited by 17
  10. 2016Exploiting the Structure: Stochastic Gradient Methods Using Raw Clusterscited by 6
  11. 2020Bitcoin Transaction Forecasting with Deep Network Representation Learningcited by 4

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