Functional linear discriminant analysis for irregularly sampled curves
By Gareth M. James, Trevor J. Hastie. 2001
342 citations recorded by the source corpus.
Subfields: Analytical Chemistry, Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/d8acf000d86db3d47b08b40bfb86e84ec805dd0a
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Analytical Chemistry
- H. Muller
- Aurore Delaigle
- Peter Hall
- Antonio Cuevas
- M. Febrero–Bande
- Tommaso Cai
- Ming Yuan
- Matt P. Wand
In Statistics and Probability
- H. Muller
- Peter Hall
- Jeng-Min Chiou
- M. Febrero–Bande
- Jane-ling Wang
- Aurore Delaigle
- Tommaso Cai
- Antonio Cuevas
Citations in the corpus
- Robust estimation and classification for functional data via projection-based depth notions (2007, methodology): “An extension of the classical linear discriminant analysis to the case of functional data has been considered in James and Hastie (2001) .”
- Nonparametric Covariance Function Estimation for Functional and Longitudinal Data (2010, neutral): “Such a model is commonly adopted and suitable for a large number of applications in functional and longitudinal data analysis (see, e.g., Shi, Weiss and Taylor, 1996; Staniswalis and Lee, 1998; James and Hastie, 2001; Diggle et al., 2002; Müller, 2005; Ramsay and Silverman, 2005).”
- Neural methods for non-standard data (2004, methodology): “Thus, linear techniques such as principal component analysis or linear discriminants and non-parametric models have been transferred to functional data [15, 22, 42 ].”
- Achieving near perfect classification for functional data (2012, methodology): “In this case, this rule is also equivalent to the linear discriminant method studied by James and Hastie (2001) and Preda et al. (2007). The most interesting result is that when ∑ j≥1 θ −2 j μ 2 j = ∞, since this case exploits the functional nature of the data and can result in perfect classificatio”
- Functional clustering and linear regression for peak load forecasting (2010, methodology): “In order to assign the new curves to clusters in the forecasting procedure, we use a functional linear discriminant analysis, as was done by James and Hastie (2001).”
- Optimal estimation of the mean function based on discretely sampled functional data: Phase transition (2011, background): “Instead, each curve is discretely observed at a different set of points [see, e.g., James and Hastie (2001), Rice and Wu (2001), Diggle et al. (2002), Yao, M¨uller and Wang (2005)].”
- Curve alignment by moments (2007, methodology): “For example, functional principal components analysis [James, Hastie and Sugar (2000) and Rice and Wu (2001)], regression with both functional responses [Zeger and Diggle (1994)] and functional predictors [Ferraty and Vieu (2002) and James and Silverman (2005)], functional linear discriminant analys”
- High-content flow cytometry and temporal data analysis for defining a cellular signature of graft-versus-host disease. (2007, background): “Recently, several algorithms treating time as a continuous variable have been introduced to deal with this issue, including spline-based methods such as linear, cubic and B-splines (21-29).”
- Generalized linear models with functional predictors (2002, methodology): “Alternatively, Gao et al. (2001) model categorical responses using a combined smoothing spline analysis of variance and log-linear model approach, while James and Hastie (2001) use a functional linear discriminant analysis model.”
- Classification Using Censored Functional Data (2013, methodology): “Therefore, as in James and Hastie (2001), our procedures are based on linear discriminant (LD) and quadratic discriminant (QD) classifiers.”
- Functional Data Analysis (2016, methodology): “…X 0 is given by the Bayes formula, Developments along these lines include a functional linear discriminant analysis approach to classify curves (James & Hastie 2001), a functional data-analytic approach to signal discrimination, using the FPCA method for dimension reduction (Hall, Poskitt &…”
- Functional Regression (2014, neutral): “The R package fpca implements the sparse PCA approaches of James, et al. (2000), and R and Matlab code for James and Hastie (2001) and FLiRTI (James, et al. 2009) are available at http://www-bcf.usc.edu/˜gareth/research/ Research.html.”
- Clustering for Sparsely Sampled Functional Data (2003, methodology): “These data comprised four ethnic groups (black, Asian, white, and Hispanic), but the white and Hispanic groups were indistinguishable (James and Hastie 2001), so a three-cluster t may well correspond to the different ethnicities.”
- Smoothing and mixed models (2003, methodology): “Other analyses are given in James, Hastie and Sugar (2000) and James and Hastie (2001) .”