getInfRobIC(L2deriv, risk, neighbor, ...)
"getInfRobIC"(L2deriv, risk, neighbor, Finfo, trafo, verbose = NULL)
"getInfRobIC"(L2deriv, risk, neighbor, Finfo, trafo, verbose = NULL)
"getInfRobIC"(L2deriv, risk, neighbor, Distr, Finfo, trafo, QuadForm = diag(nrow(trafo)), verbose = NULL)
"getInfRobIC"(L2deriv, risk, neighbor, symm, trafo, maxiter, tol, warn, Finfo, verbose = NULL, ...)
"getInfRobIC"(L2deriv, risk, neighbor, Distr, DistrSymm, L2derivSymm, L2derivDistrSymm, z.start, A.start, Finfo, trafo, maxiter, tol, warn, verbose = NULL, ...)
"getInfRobIC"(L2deriv, risk, neighbor, symm, Finfo, trafo, upper = NULL, lower=NULL, maxiter, tol, warn, noLow = FALSE, verbose = NULL, checkBounds = TRUE, ...)
"getInfRobIC"(L2deriv, risk, neighbor, Distr, DistrSymm, L2derivSymm, L2derivDistrSymm, Finfo, trafo, onesetLM = FALSE, z.start, A.start, upper = NULL, lower=NULL, OptOrIter = "iterate", maxiter, tol, warn, verbose = NULL, checkBounds = TRUE, ..., .withEvalAsVar = TRUE)
"getInfRobIC"( L2deriv, risk, neighbor, symm, Finfo, trafo, upper = NULL, lower=NULL, maxiter, tol, warn, noLow = FALSE, verbose = NULL, checkBounds = TRUE, ...)
"getInfRobIC"(L2deriv, risk, neighbor, Distr, DistrSymm, L2derivSymm, L2derivDistrSymm, Finfo, trafo, onesetLM = FALSE, z.start, A.start, upper = NULL, lower=NULL, OptOrIter = "iterate", maxiter, tol, warn, verbose = NULL, checkBounds = TRUE, ...)
"getInfRobIC"(L2deriv, risk, neighbor, symm, Finfo, trafo, upper = NULL, lower = NULL, maxiter, tol, warn, noLow = FALSE, verbose = NULL, ...)
"getInfRobIC"(L2deriv, risk, neighbor, Distr, DistrSymm, L2derivSymm, L2derivDistrSymm, Finfo, trafo, onesetLM = FALSE, z.start, A.start, upper = NULL, lower = NULL, OptOrIter = "iterate", maxiter, tol, warn, verbose = NULL, withPICcheck = TRUE, ..., .withEvalAsVar = TRUE)
"getInfRobIC"( L2deriv, risk, neighbor, symm, Finfo, trafo, upper, lower, maxiter, tol, warn, ...)"RiskType". "Neighborhood". optim). "Distribution". L2deriv. "DistributionSymmetry". "FunSymmList". "DistrSymmList". A and a: if (partially) matched to "optimize",
getLagrangeMultByOptim is used; otherwise: by default, or if matched to
"iterate" or to "doubleiterate",
getLagrangeMultByIter is used. More specifically,
when using getLagrangeMultByIter, and if argument risk is of
class "asGRisk", by default and if matched to "iterate"
we use only one (inner) iteration, if matched to "doubleiterate"
we use up to Maxiter (inner) iterations.PosSemDefSymmMatrix for use of different
(standardizing) norm TRUE, some messages are printed TRUE, minimal and maximal clipping bound are
computed to check if a valid bound was specified. withPICcheck && verbose.TRUE, risks based on covariances are to be
evaluated (default), otherwise just a call is returned.Rieder, H. (1994) Robust Asymptotic Statistics. New York: Springer.
Ruckdeschel, P. and Rieder, H. (2004) Optimal Influence Curves for General Loss Functions. Statistics & Decisions 22: 201-223.
Ruckdeschel, P. (2005) Optimally One-Sided Bounded Influence Curves. Mathematical Methods in Statistics 14(1), 105-131.
Kohl, M. (2005) Numerical Contributions to the Asymptotic Theory of Robustness. Bayreuth: Dissertation.
InfRobModel-class