ks.plot.unif

numeric vector containing the sample.
    Missing values are (silently) ignored.

confidence level for the K-S-test (defaults to 0.95), can also be a
    vector of multiple levels.

conf.level

see <code><a href="/link/ks.test?package=surveillance&version=1.12.1" rd-options="" data-mini-rdoc="surveillance::ks.test">ks.test</a></code>.

exact

col.conf

col.ref

xlab, ylab

This plot function takes a univariate sample that should be tested for
a U(0,1) distribution, plots its empirical cumulative distribution
function (<code><a href="/link/ecdf?package=surveillance&version=1.12.1" rd-options="" data-mini-rdoc="surveillance::ecdf">ecdf</a></code>), and adds a confidence band by inverting
the corresponding Kolmogorov-Smirnov test (<code><a href="/link/ks.test?package=surveillance&version=1.12.1" rd-options="" data-mini-rdoc="surveillance::ks.test">ks.test</a></code>). The
uniform distribution is rejected if the ECDF is not completely inside
the confidence band.

hplot

htest

Statistical methods for the modeling and monitoring of time series
        of counts, proportions and categorical data, as well as for the modeling
        of continuous-time point processes of epidemic phenomena.
        The monitoring methods focus on aberration detection in count data time
        series from public health surveillance of communicable diseases, but
        applications could just as well originate from environmetrics,
        reliability engineering, econometrics, or social sciences. The package
        implements many typical outbreak detection procedures such as the
        (improved) Farrington algorithm, or the negative binomial GLR-CUSUM
        method of H�hle and Paul (2008) <doi:10.1016/j.csda.2008.02.015>.
        A novel CUSUM approach combining logistic and multinomial logistic
        modeling is also included. The package contains several real-world data
        sets, the ability to simulate outbreak data, and to visualize the
        results of the monitoring in a temporal, spatial or spatio-temporal
        fashion. A recent overview of the available monitoring procedures is
        given by Salmon et al. (2016) <doi:10.18637/jss.v070.i10>.
        For the retrospective analysis of epidemic spread, the package provides
        three endemic-epidemic modeling frameworks with tools for visualization,
        likelihood inference, and simulation. 'hhh4' estimates models for
        (multivariate) count time series following Paul and Held (2011)
        <doi:10.1002/sim.4177> and Meyer and Held (2014) <doi:10.1214/14-AOAS743>.
        'twinSIR' models the susceptible-infectious-recovered (SIR) event
        history of a fixed population, e.g, epidemics across farms or networks,
        as a multivariate point process as proposed by H�hle (2009)
        <doi:10.1002/bimj.200900050>. 'twinstim' estimates self-exciting point
        process models for a spatio-temporal point pattern of infective events,
        e.g., time-stamped geo-referenced surveillance data, as proposed by
        Meyer et al. (2012) <doi:10.1111/j.1541-0420.2011.01684.x>.
        A recent overview of the implemented space-time modeling frameworks
        for epidemic phenomena is given by Meyer et al. (2015)
        <http://arxiv.org/abs/1411.0416>.

ks.plot.unif: Plot the ECDF of a uniform sample with Kolmogorov-Smirnov bounds

Description

Usage

Arguments

Value

encoding

See Also

Examples