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3 | 3 | #' |
4 | 4 | #' Factorize an FDboost tensor product model into the response and covariate parts |
5 | 5 | #' \deqn{h_j(x, t) = \sum_{k} v_j^{(k)}(t) h_j^{(k)}(x), j = 1, ..., J,} |
6 | | -#' for effect visualization as proposed in Stoecker and Greven (2021). |
| 6 | +#' for effect visualization as proposed in Stoecker, Steyer and Greven (2022). |
7 | 7 | #' |
8 | 8 | #' @param x a model object of class FDboost. |
9 | 9 | #' @param ... other arguments passed to methods. |
10 | 10 | #' |
11 | 11 | #' @details The mboost infrastructure is used for handling the orthogonal response |
12 | 12 | #' directions \eqn{v_j^{(k)}(t)} in one \code{mboost}-object |
13 | 13 | #' (with \eqn{k} running over iteration indices) and the effects into the respective |
14 | | -#' directions \eqn{h_j^{(k)}(t)} in another, both of subclass \code{FDboost_fac}. |
| 14 | +#' directions \eqn{h_j^{(k)}(t)} in another \code{mboost}-object, |
| 15 | +#' both of subclass \code{FDboost_fac}. |
| 16 | +#' The number of boosting iterations of \code{FDboost_fac}-objects cannot be |
| 17 | +#' further increased as in regular \code{mboost}-objects. |
15 | 18 | #' |
16 | 19 | #' @return a list of two mboost models of class \code{FDboost_fac} containing basis functions |
17 | 20 | #' for response and covariates, respectively, as base-learners. |
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24 | 27 | #' @seealso [FDboost_fac-class] |
25 | 28 | #' |
26 | 29 | #' @references |
27 | | -#' Stoecker, A. and Greven, S. (2021): |
| 30 | +#' Stoecker, A., Steyer L. and Greven, S. (2022): |
28 | 31 | #' Functional additive models on manifolds of planar shapes and forms |
29 | 32 | #' <arXiv:2109.02624> |
30 | 33 | #' |
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