potSim generates data from a point process,
potFit fits empirical or simulated data to a point process,
print print method for a fitted POT object of class ...,
plot plot method for a fitted GEV object,
summary summary method for a fitted GEV object,
gevrlevelPlot k-block return level with confidence intervals. }ppFit(x, threshold, npy = 365, y = NULL, mul = NULL, sigl = NULL,
shl = NULL, mulink = identity, siglink = identity, shlink =
identity, method = "Nelder-Mead", maxit = 10000, ...)
## S3 method for class 'ppFit':
print(x, \dots)
## S3 method for class 'ppFit':
plot(x, which = "ask", \dots)
## S3 method for class 'ppFit':
summary(object, doplot = TRUE, which = "all", \dots)optim for details).ydat that contain covariates for generalized linear
modelling of the location, scale and shape parameters repectively
(or NULL (the default)"ppFit".x."ppFit".NULL (the default) for stationary
fitting). The number of rows should be the same as the length
of x.control argument of
optimshow is
TRUE, then assuming that successful convergence is
indicated, the components nexc, nllh, mle
and se are always printed.mul, sigl
and shl.optim. A zero indicates successful convergence.ydat should be
approximately centered and scaled).## SOURCE("fExtremes.54C-PPFit")
## Use Rain Data:
data(rain)
## Fit Point Process Model:
xmpExtremes("Start: Parameter Fit for Point Process > ")
fit = ppFit(x = rain[1:200], threshold = 10)
print(fit)
## Summarize Results:
xmpExtremes("Next: Diagnostic Analysis > ")
par(mfrow = c(2, 2), cex = 0.75)
summary(fit)
xmpExtremes("Next: Interactive Plot > ")
## Interactive Plot:
##> par(mfrow = c(2, 2), cex = 0.75)
##> plot(fit)Run the code above in your browser using DataLab