<?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>sanderroberti.r-universe.dev</title><link>https://sanderroberti.r-universe.dev</link><description>Recent package updates in sanderroberti</description><generator>R-universe</generator><image><url>https://github.com/sanderroberti.png</url><title>R packages by sanderroberti</title><link>https://sanderroberti.r-universe.dev</link></image><lastBuildDate>Fri, 12 Jun 2026 22:42:50 GMT</lastBuildDate><item><title>[sanderroberti] ameras 0.4.0.9000</title><author>sander.roberti@nih.gov (Sander Roberti)</author><description>Analyze association studies with multiple realizations of
a noisy or uncertain exposure. These can be obtained from e.g.
a two-dimensional Monte Carlo dosimetry system (Simon et al
2015 &lt;doi:10.1667/RR13729.1&gt;) to characterize exposure
uncertainty. The implemented methods are regression calibration
(Carroll et al. 2006 &lt;doi:10.1201/9781420010138&gt;), extended
regression calibration (Little et al. 2023
&lt;doi:10.1038/s41598-023-42283-y&gt;), Monte Carlo maximum
likelihood (Stayner et al. 2007 &lt;doi:10.1667/RR0677.1&gt;),
frequentist model averaging (Kwon et al. 2023
&lt;doi:10.1371/journal.pone.0290498&gt;), and Bayesian model
averaging (Kwon et al. 2016 &lt;doi:10.1002/sim.6635&gt;). Supported
model families are Gaussian, binomial, multinomial, Poisson,
proportional hazards, and conditional logistic.</description><link>https://github.com/r-universe/sanderroberti/actions/runs/27448430804</link><pubDate>Fri, 12 Jun 2026 22:42:50 GMT</pubDate><r:package>ameras</r:package><r:version>0.4.0.9000</r:version><r:status>success</r:status><r:repository>https://sanderroberti.r-universe.dev</r:repository><r:upstream>https://github.com/sanderroberti/ameras</r:upstream><r:article><r:source>confidenceintervals.Rmd</r:source><r:filename>confidenceintervals.html</r:filename><r:title>Confidence intervals</r:title><r:created>2026-04-01 16:08:00</r:created><r:modified>2026-06-12 16:28:03</r:modified></r:article><r:article><r:source>modelfitting.Rmd</r:source><r:filename>modelfitting.html</r:filename><r:title>Fitting models and displaying output</r:title><r:created>2026-04-01 16:08:00</r:created><r:modified>2026-06-12 16:28:03</r:modified></r:article><r:article><r:source>manualfma.Rmd</r:source><r:filename>manualfma.html</r:filename><r:title>Manual FMA from regression calibration fits</r:title><r:created>2026-06-12 18:18:19</r:created><r:modified>2026-06-12 18:18:19</r:modified></r:article><r:article><r:source>transformations.Rmd</r:source><r:filename>transformations.html</r:filename><r:title>Parameter transformations</r:title><r:created>2026-04-01 16:08:00</r:created><r:modified>2026-06-12 16:28:03</r:modified></r:article><r:article><r:source>relativeriskmodels.Rmd</r:source><r:filename>relativeriskmodels.html</r:filename><r:title>Relative risk models</r:title><r:created>2026-04-01 16:08:00</r:created><r:modified>2026-06-12 16:28:03</r:modified></r:article><r:article><r:source>standardanalysis.Rmd</r:source><r:filename>standardanalysis.html</r:filename><r:title>Standard analyses with one dose realization</r:title><r:created>2026-06-12 16:55:15</r:created><r:modified>2026-06-12 16:55:15</r:modified></r:article></item></channel></rss>