1\name{dextlogF} 2\alias{dextlogF} 3% \alias{qnefghs} 4\title{ Extended log-F Distribution } 5\description{ 6 Density 7 for the extended log-F distribution. 8 9% quantile function 10 11 12} 13\usage{ 14dextlogF(x, lambda, tau, location = 0, scale = 1, log = FALSE) 15} 16%- maybe also 'usage' for other objects documented here. 17\arguments{ 18 \item{x}{ 19 Vector of quantiles. 20 21 22 } 23 \item{lambda, tau}{ 24 See \code{\link{extlogF1}}. 25 26 27 } 28 \item{location, scale}{ 29 See \code{\link{extlogF1}}. 30 31 32 } 33% \item{p}{vector of probabilities.} 34% \item{n}{number of observations. A single positive integer.} 35 36 \item{log}{ 37 If \code{TRUE} then the log density is returned, else the density. 38 39 40 } 41 42} 43\details{ 44 The details are given in \code{\link{extlogF1}}. 45 46 47} 48\value{ 49 \code{dextlogF} gives the density. 50 51 52% \code{pnefghs} gives the distribution function, and 53% \code{qnefghs} gives the quantile function, and 54% \code{rnefghs} generates random deviates. 55 56 57} 58 59%\references{ 60% 61% 62% 63%} 64 65\author{ T. W. Yee } 66%\note{ 67% 68%} 69 70\seealso{ 71 \code{\link{extlogF1}}, 72 \code{\link{dalap}}. 73 74 75% \code{\link{simulate.vlm}}. 76 77 78} 79\examples{ 80\dontrun{ x <- seq(-2, 8, by = 0.1); mytau <- 0.25; mylambda <- 0.2 81plot(x, dextlogF(x, mylambda, tau = mytau), type = "l", 82 las = 1, col = "blue", ylab = "PDF (log-scale)", log = "y", 83 main = "Extended log-F density function is blue", 84 sub = "Asymmetric Laplace is orange dashed") 85lines(x, dalap(x, tau = mytau, scale = 3.5), col = "orange", lty = 2) 86abline(v = 0, col = "gray", lty = 2) } 87} 88\keyword{distribution} 89