NMixMCMC
. It computes
estimated posterior predictive cumulative distribution function for each margin.NMixPredCDFMarg(x, ...)## S3 method for class 'default':
NMixPredCDFMarg(x, scale, K, w, mu, Li, Krandom=TRUE, \dots)
## S3 method for class 'NMixMCMC':
NMixPredCDFMarg(x, grid, lgrid=50, scaled=FALSE, \dots)
## S3 method for class 'GLMM_MCMC':
NMixPredCDFMarg(x, grid, lgrid=50, scaled=FALSE, \dots)
NMixMCMC
for
NMixPredCDFMarg.NMixMCMC
function. An object of class GLMM_MCMC
for
NMixPredCDFMarg.GLMM_MCMC
function.
A list with the grid values (see below) for
shift
and the scale
.Krandom
$=$FALSE
) or a
numeric vector with the chain for the number of mixture components. If x$dim
is 1 then grid
may be a numeric vector. If
x$dim
is higher than then grid
must be a
grid
if
that is not specified.TRUE
, the CDF of shifted and scaled data is
summarized. The shift and scale vector are taken from the
scale
component of the object x
.NMixPredCDFMarg
which has the following components:x1
, ...or take names from
grid
argument.freqK
.1
, ..., i.e.,
cdf[[1]]
$=$cdf[["1"]]
is the predictive
cdf for margin 1 etc.1
, .... That is,
cdf[[1]][[1]]
$=$ cdf[["1"]][[1]]
is the predictive
CDF for margin 1 conditioned by $K=1$,
cdf[[1]][[2]]
$=$ cdf[["1"]][[2]]
is the predictive
CDF for margin 1 conditioned by $K=2$ etc. Note that cdfK
provides some additional information only
when Krandom
$=$ TRUE
or when x
results from
the NMixMCMC
call to the reversible jump MCMC.
plot
method implemented for the resulting object.plot.NMixPredCDFMarg
, NMixMCMC
, GLMM_MCMC
.