A Bayesian approach to on-line learning
By Manfred Opper. 1999
Subfields: Optimization & Training, Probabilistic & Bayesian Methods
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Optimization & Training
- José Miguel Hernández-Lobato
- Martin Wistuba
- Zoubin Ghahramani
- Michael I. Jordan
- Soumya Ghosh
- Yarin Gal
- David Barber
- Yee Whye Teh
In Probabilistic & Bayesian Methods
- Zoubin Ghahramani
- Richard E. Turner
- Yarin Gal
- José Miguel Hernández-Lobato
- David M. Blei
- Yingzhen Li
- David Barber
- Yee Whye Teh
Citations in the corpus
- Optimal Continual Learning has Perfect Memory and is NP-hard (2020, methodology): “For example, the work of Opper & Winther (1998) introduces an approximately Bayesian algorithm for neural networks that can be updated continuously in an on-line fashion.”
- Online Structured Laplace Approximations For Overcoming Catastrophic Forgetting (2018, methodology): “Our work links the Kronecker factored Laplace approximation [34] to Bayesian online learning [31] similar to how Variational Continual Learning [30] connects Online Variational Learning [7, 13] to Bayes-by-Backprop [1].”
- Assumed Density Filtering Methods for Learning Bayesian Neural Networks (2016, background): “…2014; Hern´andez-Lobato and Adams 2015), where the authors build upon the online Bayesian inference algorithm known as assumed density fil-tering (ADF) (Opper 1998) to develop methods for learning Bayesian neural networks — expectation backpropagation (EBP) and probabilistic backpropagation (PBP).”
- Probabilistic Backpropagation for Scalable Learning of Bayesian Neural Networks (2015, methodology): “…method that approximates the exact posterior of a neural network (5) with a factored distribution given by The approximation parameters m ij,l , v ij,l , α γ , β γ , α λ and β λ are determined by applying an assumed density filtering method (Opper & Winther, 1998; Minka, 2001) on the posterior (5).”
- Expectation Propagation for approximate Bayesian inference (2001, background): “Figure 3 (b) plots cost vs. error for EP versus three other algorithms for estimating the Bayes point: the billiard al gorithm of Herbrich et al. (1999), the TAP algorithm of Opper & Winther (2000) , and the mean-field (MF) algo rithm of Opper & Winther (2000).”
- Task Agnostic Continual Learning via Meta Learning (2019, methodology): “Bayesian Gradient Descent (BGD) (Zeno et al., 2018), as we discussed before, adopts the framework of online variational Bayes, and approximates the posterior with a diagonal Gaussian distribution.”
- Measuring and regularizing networks in function space (2018, methodology): “…learning on an earlier task A, multiplied by the diagonal of the Fisher information matrix F (calculated on task A ): This idea is closely related to well-studied approaches to Bayesian online learning, if F is interpreted as a precision matrix (Honkela & Valpola (2003), Opper & Winther (1998)).”
- Note on the quadratic penalties in elastic weight consolidation (2017, methodology): “EWC can be seen as an on-line approximate inference algorithm, closely related to assumed density filtering [ADF Opper and Winther, 1998, Minka, 2001] and Laplace propagation [Eskin et al., 2004].”
- Streaming Variational Bayes (2013, methodology): “This approach is similar in spirit to assumed density filtering or expectation propagation [7–9], but each step of those methods involves a moment-matching step that can be computationally costly for models such as topic models.”
- Statistical Mechanics of On-line Learning (2009, background): “These results for optimal modulations functions are, in general, better understood from a Bayesian point of view ([17,18,19]).”
- Iterative Network Pruning with Uncertainty Regularization for Lifelong Sentiment Classification (2021, methodology): “Instead of keeping the old-tasks fixed when learning new tasks, we incorporate an uncertainty regularization [1, 6] based on the Bayesian online learning framework [27] into the iterative pruning procedure.”
- Adversarial Phenomenon in the Eyes of Bayesian Deep Learning (2017, background): “Some of these works belong to two broad classes of approximate inference - variational inference (VI) and assumed density filtering (ADF) [28] which we briefly describe below.”
- A family of algorithms for approximate Bayesian inference (2001, background): “ADF has been independently proposed in the statistics (Lauritzen, 1992; Bernardo & Giron, 1988; Stephens, 1997), artiicial intelligence (Boyen & Koller, 1998b; Opper & Winther, 1999; Barber & Sollich , 1999; Frey et al., 2000), and control literature (Kushner & Budhiraja, 2000; Maybeck, 1982).”
- Bayesian Gaussian process models : PAC-Bayesian generalisation error bounds and sparse approximations (2003, methodology): “This simple idea has been used extensively, for example in the context of Bayesian on-line learning [138] or switching linear dynamical systems [10, 25, 127], see [125] for more exhaustive references.”
- Pattern Recognition and Machine Learning (2006, unknown): “A special case of EP, known as assumed density filtering (ADF) or moment matching (Maybeck, 1982; Lauritzen, 1992; Boyen and Koller, 1998; Opper and Winther, 1999), is obtained by initializing all of the approximating factors except the first to unity and then making one pass through the factors upd”
- Continual Learning with Bayesian Neural Networks for Non-Stationary Data (2020, methodology): “Prominent examples include sequential Monte Carlo (Liu & Chen, 1998), assumed density filtering (Maybeck, 1982), and online variational Bayes (Opper, 1998; Ghahramani, 2000; Sato, 2001; Broderick et al., 2013).”
- IncDet: In Defense of Elastic Weight Consolidation for Incremental Object Detection (2020, background): “elastic weight consolidation (EWC) based on the Bayesian online learning [16].”