Representations of quasi-Newton matrices and their use in limited memory methods
By Richard H. Byrd, Jorge Nocedal, Bobby Schnabel. 1994
How researchers see this paper
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- Jakub Konecný
- Nicolas Loizou
- Peter Richtárik
- Yoshua Bengio
- Francis R. Bach
- Mark W. Schmidt
- Dacheng Tao
- Albert S. Berahas
Citations in the corpus
- DeltaGrad: Rapid retraining of machine learning models (2020, methodology): “Then it uses an effcient L-BGFS update from Byrd et al. (1994) (see Appendix A.2.1 for the details of the L-BGFS update).”
- The State of the Art (2001, unknown): “Hk = A −1 k there exists for the case A0 = 1 γ I another closed formula [24]”
- An Introduction to Conditional Random Fields for Relational Learning (2007, methodology): “A full K × K approximation to the Hessian still requires quadratic size, however, so a limited-memory version of BFGS is used, due to Byrd et al. [1994].”
- Convergent Decomposition Solvers for Tree-reweighted Free Energies (2011, background): “…model subject to the original constraints: min θ∈C(θ) ˜ Φ (k) +( θ− θ (k) )·∇ (k) θ + 1 2 ( θ− θ (k) ) T B (k) ( θ− θ (k) ) where B (k) is a positive-definitive approximation to the Hessian that is maintained in compact form in terms of the previous p iterates and gradients (Byrd et al., 1994).”
- Conditional Neural Fields (2009, methodology): “In this work, we use the logistic function as the gate function.”
- Projected Newton-type methods in machine learning (2011, methodology): “By taking the compact representation of Byrd et al. (1994)”
- Table extraction using conditional random fields (2003, methodology): “As with the CRF, we use a Gaussian prior, and train using L-BFGS.”
- Coupled Group Lasso for Web-Scale CTR Prediction in Display Advertising (2014, background): “Hence, it’s more suitable for optimization problems with a large number of variables (Nocedal, 1980; Byrd et al., 1994).”
- A Distributed Quasi-Newton Algorithm for Empirical Risk Minimization with Nonsmooth Regularization (2018, background): “et al. [4], given a prespecified integer m > 0, at the t th iteration for t > 0, let ˜ m (cid:66) min ( m , t ) , and define At the first iteration where no s i and y i are available, we set H a I for some positive scalar a 0 When f is twice-differentiable and If f is not strongly convex, it is…”
- Composition of Conditional Random Fields for Transfer Learning (2005, unknown): “Particularly effective are gradientbased methods that use approximate second-order information, such as conjugate gradient and limited-memory BFGS (Byrd et al., 1994).”
- Efficiently Inducing Features of Conditional Random Fields (2002, methodology): “, 1997), however it has recently been shown that quasi-Newton methods, such as L-BFGS, are significantly more efficient (Byrd et al., 1994; Malouf, 2002; Sha & Pereira, 2003).”
- Quasi-Newton Methods on Grassmannians and Multilinear Approximations of Tensors (2009, methodology): “We give a brief summary of the limited memory quasi-Newton method with L-BFGS updates on Euclidean spaces [6] that we need later for our Grassmann variant.”
- Numerical optimization (2004, methodology): “24), that provides a compact representation of the inverse BFGS approximation Hk ; see [52] for details.”
- An interior algorithm for nonlinear optimization that combines line search and trust region steps (2006, methodology): “We have implemented a limited memory BFGS method using the compact representations described in [8].”
- Quasi-Newton Methods for Deep Learning: Forget the Past, Just Sample (2019, methodology): “• Implementing the limited memory SR1 methods is not trivial; we made use of the compact representations of the SR1 matrices [12] and computed the steps dynamically; see Appendix B.”
- Optimization Methods for Supervised Machine Learning: From Linear Models to Deep Learning (2017, background): “Fortunately, however, the optimization literature has already addressed these latter issues with the idea of using limited memory quasi-Newton approaches, such as limited memory BFGS, also known as L-BFGS [13].”