Biconvex sets and optimization with biconvex functions: a survey and extensions
By Jochen Gorski, Frank Pfeuffer, Kathrin Klamroth. 2007
751 citations recorded by the source corpus.
Subfields: Computational Theory and Mathematics, Numerical Analysis, Organizational Behavior and Human Resource Management
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Computational Theory and Mathematics
- Ameet Talwalkar
- Virginia Smith
- Matthias Hein
- Bernt Schiele
- Maksim Lapin
- Gui Zhou
- Fernando De la Torre
- Arindam Banerjee
In Numerical Analysis
- Gui Zhou
- Matthias Hein
- Fernando De la Torre
- Arindam Banerjee
- Cunhua Pan
- ShengWei Mei
- Virginia Smith
- Ameet Talwalkar
In Organizational Behavior and Human Resource Management
- Fernando De la Torre
- Arindam Banerjee
- Thomas K. Leung
- Jeffrey F. Cohn
- Robert Tibshirani
- Deyu Meng
- Li-Jia Li
- André Ricardo Gonçalves
Citations in the corpus
- Federated Multi-Task Learning (2017, background): “M OCHA is based on a bi-convex alternating approach, which is guaranteed to converge [16, 43] to a stationary solution of problem (1).”
- Listening to Chaotic Whispers: A Deep Learning Framework for News-oriented Stock Trend Prediction (2017, methodology): “In this paper, we choose the linear regularizer proposed in [11], which linearly discriminates samples with respect to their loss, as: Similarto[11][13],weadoptAlternativeConvexSearch(ACS)[9] to solve Equation (1).”
- MentorNet: Learning Data-Driven Curriculum for Very Deep Neural Networks on Corrupted Labels (2017, methodology): “eight with the model parameters [21], leading to a weighting scheme that assigns higher weights to examples of smaller training loss. After that, various weighting schemes have been proposed, e.g. in [38,16,26,34,6,28]. Alternative minimization is commonly used in existing methods to solve the joint”
- Reduced rank stochastic regression with a sparse singular value decomposition (2012, background): “A multiconvex optimization problem may have multiple local minima, and its non-convex optimization requires more complicated algorithms (Gorski et al., 2007).”
- Projective dictionary pair learning for pattern classification (2014, background): “The convergence of such a problem has already been intensively studied [23], and the proposed optimization algorithm is actually an alternate convex search (ACS) algorithm.”
- Adaptive Decontamination of the Training Set: A Unified Formulation for Discriminative Visual Tracking (2016, methodology): “Therefore, we found 2Detailed results are presented in the supplementary material. a single (N = 1) ACS iteration to be sufficient to refine the estimate of θ and α from the previous frame.”
- Convolutional Sparse Coding for Image Super-Resolution (2015, methodology): “We alternatively optimize the f and the W sub-problems, which is actually an alternate convex search (ACS) algorithm [10].”
- Robust Markov Decision Processes (2013, neutral): “[13] for a detailed convergence analysis.”
- Progressive Meta-Learning With Curriculum (2022, methodology): “This strategy is generally used in ACS (Alternative Convex Search) [38].”
- Intelligent Reflecting Surface Aided Multigroup Multicast MISO Communication Systems (2019, background): “We note that R̃k(F, e|Fn, e) is biconcave of F and e [24], since R̃k(F|F) = R̃k(F, e|Fn, e) with given e is concave of F and R̃k(e|e) = R̃k(F, e|Fn, e) with given F is concave of e.”
- Easy Samples First: Self-paced Reranking for Zero-Example Multimedia Search (2014, methodology): “However, it can be effectively optimized by Cyclic Coordinate Method (CCM) [5].”
- MentorNet: Regularizing Very Deep Neural Networks on Corrupted Labels (2017, methodology): “The algorithm can be used to replace the commonly used alternative minimization [13] or majorize-minimization algorithm [42], in order to learn latent variables for deep CNNs.”
- Efficient Multitask Feature and Relationship Learning (2017, background): “5) is not easy to solve directly. In this section we first show that (5) can be converted into a multi-convex optimization problem. A multi-convex function is a generalization of a bi-convex function (Gorski et al., 2007) into multiple variables or blocks of variables. Definition 3.1 (Multi-convex fun”
- Multi-task Sparse Structure Learning with Gaussian Copula Models (2016, methodology): “and Ω, thus a partial optimum will be found (Gorski et al., 2007).”
- Penalized classification using Fisher’s linear discriminant (2011, background): “Moreover, (27) is a biconvex problem (see e.g. Gorski et al., 2007): that is, with β held fixed, it is convex in u , and with u held fixed, it is convex in β .”
- Asymmetric multi-task learning based on task relatedness and loss (2016, background): “Further, the tasks that are associated through the regularization graph are mostly intuitively relevant ones.”
- Self-Paced Curriculum Learning (2015, background): “(1) (Gorski, Pfeuffer, and Klamroth 2007).”
- Distributionally Robust Co-Optimization of Energy and Reserve Dispatch (2016, background): “The convergence property of Algorithm 2 is addressed in [39].”
- Scalable Multitask Representation Learning for Scene Classification (2014, background): “guarantees (sub)-convergence to a critical point of the objective of (1), see [7], which is the standard convergence result for non-convex problems.”