<?xml version="1.0" encoding="utf-8" ?><rss version="2.0" xmlns:atom="http://www.w3.org/2005/Atom" xmlns:r="https://r-universe.dev"><channel><title>takeshiemura1.r-universe.dev</title><link>https://takeshiemura1.r-universe.dev</link><description>Recent package updates in takeshiemura1</description><generator>R-universe</generator><image><url>https://github.com/takeshiemura1.png</url><title>R packages by takeshiemura1</title><link>https://takeshiemura1.r-universe.dev</link></image><lastBuildDate>Mon, 25 May 2026 04:57:41 GMT</lastBuildDate><item><title>[takeshiemura1] Copula.surv 3.1</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Simulating bivariate survival data from various copula
models. Estimating bivariate copula models with semiparametric
or Weibull margins under various copulas. Two different ways to
estimate the association parameter in copula models are
implemented. A goodness-of-fit test for the Gumbel and Clayton
copulas is also implemented for semiparametric models. See
Emura, Lin and Wang (2010) &lt;doi:10.1016/j.csda.2010.03.013&gt; for
details.</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/26384660202</link><pubDate>Mon, 25 May 2026 04:57:41 GMT</pubDate><r:package>Copula.surv</r:package><r:version>3.1</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/Copula.surv</r:upstream></item><item><title>[takeshiemura1] compound.Cox 3.33</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Univariate feature selection and compound covariate
methods under the Cox model with high-dimensional features
(e.g., gene expressions). Available are survival data for
non-small-cell lung cancer patients with gene expressions (Chen
et al 2007 New Engl J Med) &lt;DOI:10.1056/NEJMoa060096&gt;,
statistical methods in Emura et al (2012 PLoS ONE)
&lt;DOI:10.1371/journal.pone.0047627&gt;, Emura &amp; Chen (2016 Stat
Methods Med Res) &lt;DOI:10.1177/0962280214533378&gt;, and Emura et
al (2019)&lt;DOI:10.1016/j.cmpb.2018.10.020&gt;. Algorithms for
generating correlated gene expressions are also available.
Estimation of survival functions via copula-graphic (CG)
estimators is also implemented, which is useful for sensitivity
analyses under dependent censoring (Yeh et al 2023
Biomedicines) &lt;DOI:10.3390/biomedicines11030797&gt; and factorial
survival analyses (Emura et al 2024 Stat Methods Med Res)
&lt;DOI:10.1177/09622802231215805&gt;.</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/26805901454</link><pubDate>Mon, 16 Jun 2025 04:50:02 GMT</pubDate><r:package>compound.Cox</r:package><r:version>3.33</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/compound.Cox</r:upstream></item><item><title>[takeshiemura1] double.truncation 1.8</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Likelihood-based inference methods with doubly-truncated
data are developed under various models. Nonparametric models
are based on Efron and Petrosian (1999)
&lt;doi:10.1080/01621459.1999.10474187&gt; and Emura, Konno, and
Michimae (2015) &lt;doi:10.1007/s10985-014-9297-5&gt;. Parametric
models from the special exponential family (SEF) are based on
Hu and Emura (2015) &lt;doi:10.1007/s00180-015-0564-z&gt; and Emura,
Hu and Konno (2017) &lt;doi:10.1007/s00362-015-0730-y&gt;. The
parametric location-scale models are based on Dorre et al.
(2021) &lt;doi:10.1007/s00180-020-01027-6&gt;.</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/26275723199</link><pubDate>Thu, 05 Dec 2024 05:30:02 GMT</pubDate><r:package>double.truncation</r:package><r:version>1.8</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/double.truncation</r:upstream></item><item><title>[takeshiemura1] g.ridge 1.0</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Ridge regression due to Hoerl and Kennard
(1970)&lt;DOI:10.1080/00401706.1970.10488634&gt; and generalized
ridge regression due to Yang and Emura
(2017)&lt;DOI:10.1080/03610918.2016.1193195&gt; with optimized tuning
parameters. These ridge regression estimators (the HK estimator
and the YE estimator) are computed by minimizing the
cross-validated mean squared errors. Both the ridge and
generalized ridge estimators are applicable for
high-dimensional regressors (p&gt;n), where p is the number of
regressors, and n is the sample size.</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/25658500301</link><pubDate>Fri, 08 Dec 2023 02:41:02 GMT</pubDate><r:package>g.ridge</r:package><r:version>1.0</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/g.ridge</r:upstream></item><item><title>[takeshiemura1] joint.Cox 3.16</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Fit survival data and perform dynamic prediction under
joint frailty-copula models for tumour progression and death.
Likelihood-based methods are employed for estimating model
parameters, where the baseline hazard functions are modeled by
the cubic M-spline or the Weibull model. The methods are
applicable for meta-analytic data containing individual-patient
information from several studies. Survival outcomes need
information on both terminal event time (e.g., time-to-death)
and non-terminal event time (e.g., time-to-tumour progression).
Methodologies were published in Emura et al. (2017)
&lt;doi:10.1177/0962280215604510&gt;, Emura et al. (2018)
&lt;doi:10.1177/0962280216688032&gt;, Emura et al. (2020)
&lt;doi:10.1177/0962280219892295&gt;, Shinohara et al. (2020)
&lt;doi:10.1080/03610918.2020.1855449&gt;, Wu et al. (2020)
&lt;doi:10.1007/s00180-020-00977-1&gt;, and Emura et al. (2021)
&lt;doi:10.1177/09622802211046390&gt;. See also the book of Emura et
al. (2019) &lt;doi:10.1007/978-981-13-3516-7&gt;. Survival data from
ovarian cancer patients are also available.</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/27124490158</link><pubDate>Fri, 04 Feb 2022 09:10:10 GMT</pubDate><r:package>joint.Cox</r:package><r:version>3.16</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/joint.Cox</r:upstream></item><item><title>[takeshiemura1] Copula.Markov 2.9</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Estimation and statistical process control are performed
under copula-based time-series models. Available are
statistical methods in Long and Emura (2014 JCSA), Emura et al.
(2017 Commun Stat-Simul) &lt;DOI:10.1080/03610918.2015.1073303&gt;,
Huang and Emura (2021 Commun Stat-Simul)
&lt;DOI:10.1080/03610918.2019.1602647&gt;, Lin et al. (2021 Comm
Stat-Simul) &lt;DOI:10.1080/03610918.2019.1652318&gt;, Sun et al.
(2020 JSS Series in Statistics)&lt;DOI:10.1007/978-981-15-4998-4&gt;,
and Huang and Emura (2021, in revision).</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/26869483408</link><pubDate>Mon, 29 Nov 2021 04:40:13 GMT</pubDate><r:package>Copula.Markov</r:package><r:version>2.9</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/Copula.Markov</r:upstream></item><item><title>[takeshiemura1] uni.survival.tree 1.5</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>A classification (decision) tree is constructed from
survival data with high-dimensional covariates. The method is a
robust version of the logrank tree, where the variance is
stabilized. The main function &quot;uni.tree&quot; returns a
classification tree for a given survival dataset. The inner
nodes (splitting criterion) are selected by minimizing the
P-value of the two-sample the score tests. The decision of
declaring terminal nodes (stopping criterion) is the P-value
threshold given by an argument (specified by user). This tree
construction algorithm is proposed by Emura et al. (2021, in
review).</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/26805160606</link><pubDate>Mon, 22 Mar 2021 05:40:02 GMT</pubDate><r:package>uni.survival.tree</r:package><r:version>1.5</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/uni.survival.tree</r:upstream></item><item><title>[takeshiemura1] depend.truncation 3.0</title><author>takeshiemura@gmail.com (Takeshi Emura)</author><description>Estimation and testing methods for dependently truncated
data. Semi-parametric methods are based on Emura et al.
(2011)&lt;Stat Sinica 21:349-67&gt;, Emura &amp; Wang
(2012)&lt;doi:10.1016/j.jmva.2012.03.012&gt;, and Emura &amp; Murotani
(2015)&lt;doi:10.1007/s11749-015-0432-8&gt;. Parametric approaches
are based on Emura &amp; Konno
(2012)&lt;doi:10.1007/s00362-014-0626-2&gt; and Emura &amp; Pan
(2017)&lt;doi:10.1007/s00362-017-0947-z&gt;. A regression approach is
based on Emura &amp; Wang (2016)&lt;doi:10.1007/s10463-015-0526-9&gt;.
Quasi-independence tests are based on Emura &amp; Wang
(2010)&lt;doi:10.1016/j.jmva.2009.07.006&gt;. Right-truncated data
for Japanese male centenarians are given by Emura &amp; Murotani
(2015)&lt;doi:10.1007/s11749-015-0432-8&gt;.</description><link>https://github.com/r-universe/takeshiemura1/actions/runs/26805849083</link><pubDate>Tue, 27 Feb 2018 11:43:41 GMT</pubDate><r:package>depend.truncation</r:package><r:version>3.0</r:version><r:status>success</r:status><r:repository>https://takeshiemura1.r-universe.dev</r:repository><r:upstream>https://github.com/cran/depend.truncation</r:upstream></item></channel></rss>