Computational Statistics and Data Analysis a Note on Adaptive Group Lasso
By Hansheng Wang, Chenlei Leng
298 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Rheumatology, Statistics and Probability
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In Artificial Intelligence
- Taesup Moon
- Sungmin Cha
- Yixin Fang
- Hongjoon Ahn
- Sangwon Jung
- Hans-Peter Piepho
- A. I. Folorunsho
- Eyitayo Oluwole Ogunjobi
In Rheumatology
- A. I. Folorunsho
- Eyitayo Oluwole Ogunjobi
- Laurent Callot
- G. M. Oyeyemi
- Hua Liang
- Anders Bredahl Kock
- Heng Lian
- Tao Lu
In Statistics and Probability
- Anders Bredahl Kock
- Laurent Callot
- Heng Lian
- Yixin Fang
- Hua Liang
- Tao Lu
- Hongqi Xue
- Hans-Peter Piepho
Citations in the corpus
- Variable selection for high-dimensional generalized varying-coefficient models (2012, methodology): “In particular, the adaptive group lasso was proposed in Wang and Leng (2008) and is the penalty we use here.”
- Shrinkage estimation of common breaks in panel data models via adaptive group fused Lasso (2016, unknown): “A combination of the adaptive Lasso and group Lasso yields the adaptive group Lasso that can achieve selection consistency for “grouped variables”; see, e.g., Wang and Leng (2008).”
- CONSISTENT AND CONSERVATIVE MODEL SELECTION WITH THE ADAPTIVE LASSO IN STATIONARY AND NONSTATIONARY AUTOREGRESSIONS (2015, background): “We shall also make use of the fact that the least squares estimator, (ρ̂I , β̂ ′ I), of (ρ ∗, β∗′) in (1) of the main paper satisfies that ∥∥∥ST [(ρ̂I , β̂′ I)′ − (ρ∗, β∗′)′]∥∥∥ `2 ∈ Op(1) The idea of the proof is as in the proof of Theorem 2 in Zou (2006). Alternatively, one could follow the route ”
- Regularized k-means clustering of high-dimensional data and its asymptotic consistency (2012, background): “Particularly, the regularization term J(C(j)) can be group LASSO penalty λ‖C(j)‖ [27], or adaptive group LASSO penalty J(C(j)) = λj‖C(j)‖ [22], where λ and λj , j = 1, .”
- Sparse Additive Ordinary Differential Equations for Dynamic Gene Regulatory Network Modeling (2014, methodology): “In the past two decades, there has been much work on penalization methods for variable selection and parameter estimation for high-dimensional data, including the bridge estimator (Frank and Friedman 1993); the least absolute shrinkage and selection operator (LASSO) (Tibshirani 1996) and its extensi”
- Adaptive Group Sparse Regularization for Continual Learning (2020, methodology): “Namely, for the unimportant nodes in G(t−1)0 , we apply the ordinary group Lasso regularization (4) as in [3], and for the important nodes in G\G(t−1)0 , we apply the group-sparsity based penalty (5) that adaptively penalizes the deviation of θ`,n from the previously learned θ̂ (t−1) `,n depending o”
- On Performance of Shrinkage Methods – A Monte Carlo Study (2015, methodology): “[9] developed Least Angle Regression Selection (LARS) for a model selection algorithm [10], [11] study the properties of adaptive group Lasso.”
- Genomic selection using regularized linear regression models: ridge regression, lasso, elastic net and their extensions (2012, background): “…ridge regression [16], numerous lasso variations such as group lasso [17,18], which includes or excludes variables in groups, adaptive group lasso [19], lasso penalized generalized linear models [12], the Dantzig selector [20], a slightly modified version of the lasso, generalized elastic net…”
- Oracle Efficient Estimation and Forecasting with the Adaptive Lasso and the Adaptive Group Lasso in Vector Autoregressions (2012, methodology): “Hence, inspired by Wang and Leng (2008) we combine the group Lasso of Yuan and Lin (2006) with the adaptive Lasso to make use of this grouping structure.”