| Silverman | R Documentation |
Mathematical and statistical functions for the Silverman kernel defined by the pdf,
f(x) = exp(-|x|/\sqrt{2})/2 * sin(|x|/\sqrt{2} + \pi/4)
over the support x \in R.
The cdf and quantile functions are omitted as no closed form analytic expressions could be found, decorate with FunctionImputation for numeric results.
distr6::Distribution -> distr6::Kernel -> Silverman
nameFull name of distribution.
short_nameShort name of distribution for printing.
descriptionBrief description of the distribution.
distr6::Distribution$cdf()distr6::Distribution$confidence()distr6::Distribution$correlation()distr6::Distribution$getParameterValue()distr6::Distribution$iqr()distr6::Distribution$liesInSupport()distr6::Distribution$liesInType()distr6::Distribution$parameters()distr6::Distribution$pdf()distr6::Distribution$prec()distr6::Distribution$print()distr6::Distribution$quantile()distr6::Distribution$rand()distr6::Distribution$setParameterValue()distr6::Distribution$stdev()distr6::Distribution$strprint()distr6::Distribution$summary()distr6::Distribution$workingSupport()distr6::Kernel$mean()distr6::Kernel$median()distr6::Kernel$mode()distr6::Kernel$skewness()new()Creates a new instance of this R6 class.
Silverman$new(decorators = NULL)
decorators(character())
Decorators to add to the distribution during construction.
pdfSquared2Norm()The squared 2-norm of the pdf is defined by
\int_a^b (f_X(u))^2 du
where X is the Distribution, f_X is its pdf and a, b
are the distribution support limits.
Silverman$pdfSquared2Norm(x = 0, upper = Inf)
x(numeric(1))
Amount to shift the result.
upper(numeric(1))
Upper limit of the integral.
cdfSquared2Norm()The squared 2-norm of the cdf is defined by
\int_a^b (F_X(u))^2 du
where X is the Distribution, F_X is its pdf and a, b
are the distribution support limits.
Silverman$cdfSquared2Norm(x = 0, upper = 0)
x(numeric(1))
Amount to shift the result.
upper(numeric(1))
Upper limit of the integral.
variance()The variance of a distribution is defined by the formula
var_X = E[X^2] - E[X]^2
where E_X is the expectation of distribution X. If the distribution is multivariate the
covariance matrix is returned.
Silverman$variance(...)
...Unused.
clone()The objects of this class are cloneable with this method.
Silverman$clone(deep = FALSE)
deepWhether to make a deep clone.
Other kernels:
Cosine,
Epanechnikov,
LogisticKernel,
NormalKernel,
Quartic,
Sigmoid,
TriangularKernel,
Tricube,
Triweight,
UniformKernel
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