<?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>sadikulislamiasri-hub.r-universe.dev</title><link>https://sadikulislamiasri-hub.r-universe.dev</link><description>Recent package updates in sadikulislamiasri-hub</description><generator>R-universe</generator><image><url>https://github.com/sadikulislamiasri-hub.png</url><title>R packages by sadikulislamiasri-hub</title><link>https://sadikulislamiasri-hub.r-universe.dev</link></image><lastBuildDate>Tue, 23 Jun 2026 15:28:33 GMT</lastBuildDate><item><title>[cran] llmimpute 0.1.0</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides missing data imputation through two complementary
engines: a large language model engine that communicates with
the 'Anthropic' 'Claude' application programming interface for
context-aware semantic imputation, and a fully self-contained
offline engine implementing nineteen statistical and machine
learning algorithms entirely in base R with no additional
package dependencies. Offline methods include mean, median,
mode, last observation carried forward, next observation
carried backward, hot-deck, predictive mean matching, k-nearest
neighbours, ordinary least-squares regression, Lasso with
coordinate descent, Ridge with closed-form solution, Bayesian
Ridge regression with evidence approximation following MacKay
(1992), support vector regression with a radial basis function
kernel, classification and regression trees, random forests,
gradient boosting, iterative random forest imputation,
principal component analysis imputation via iterative singular
value decomposition, and nuclear-norm minimisation via singular
value thresholding. When no API key is available the package
automatically falls back to the offline engine, ensuring full
operation in environments without internet access. Every
imputed value is accompanied by a confidence score and a
plain-language reasoning string, producing reproducible audit
trails. The automatic method selector chooses the best
algorithm per column based on data type, skewness, missingness
rate, and inter-column correlations.</description><link>https://github.com/r-universe/cran/actions/runs/28040884932</link><pubDate>Tue, 23 Jun 2026 15:28:33 GMT</pubDate><r:package>llmimpute</r:package><r:version>0.1.0</r:version><r:status>success</r:status><r:repository>https://cran.r-universe.dev</r:repository><r:upstream>https://github.com/cran/llmimpute</r:upstream><r:article><r:source>getting-started.Rmd</r:source><r:filename>getting-started.html</r:filename><r:title>Getting started with llmimpute</r:title><r:created>2026-06-23 15:28:33</r:created><r:modified>2026-06-23 15:28:33</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] climatestatsr 0.1.2</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>A comprehensive collection of statistical functions for
climate change research. Provides tools for temporal trend
detection based on the Mann-Kendall (MK) test (Mann 1945
&lt;doi:10.2307/1907187&gt;; Kendall 1975, ISBN:0852641990) and Sen's
slope (Sen 1968 &lt;doi:10.2307/2285891&gt;), spatial autocorrelation
using Moran's I (Moran 1950 &lt;doi:10.2307/2332142&gt;), extreme
value analysis using the Generalised Extreme Value (GEV)
distribution and Peaks-Over-Threshold (POT) method (Coles 2001
&lt;doi:10.1007/978-1-4471-3675-0&gt;), standardised drought indices
including the Standardised Precipitation Index (SPI; McKee et
al. 1993) and the Standardised Precipitation Evapotranspiration
Index (SPEI; Vicente-Serrano et al. 2010
&lt;doi:10.1175/2009JCLI2909.1&gt;), and formal detection-attribution
methods via optimal fingerprint regression and Empirical
Orthogonal Function (EOF) analysis (Allen and Tett 1999
&lt;doi:10.1007/s003820050291&gt;), and apparent temperature via the
heat index (Steadman 1979
&lt;doi:10.1175/1520-0450(1979)018%3C0861:TAOSPI%3E2.0.CO;2&gt;).
Suitable for both station-level time series and gridded climate
fields.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016112117</link><pubDate>Thu, 18 Jun 2026 17:35:46 GMT</pubDate><r:package>climatestatsr</r:package><r:version>0.1.2</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/climatestatsr</r:upstream><r:article><r:source>climatestatsr.Rmd</r:source><r:filename>climatestatsr.html</r:filename><r:title>climatestatsr: A Comprehensive Guide to Statistical Tools for Climate Change Analysis</r:title><r:created>2026-06-18 17:35:46</r:created><r:modified>2026-06-18 17:35:46</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] llmclean 0.1.1</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Detects and suggests fixes for semantic inconsistencies in
data frames by calling large language models (LLMs) through a
unified, provider-agnostic interface. Supported providers
include 'OpenAI' ('GPT-4o', 'GPT-4o-mini')
&lt;https://platform.openai.com&gt;, 'Anthropic' ('Claude')
&lt;https://www.anthropic.com&gt;, 'Google' ('Gemini')
&lt;https://ai.google.dev&gt;, 'Groq' (free-tier 'LLaMA' and
'Mixtral') &lt;https://groq.com&gt;, and local 'Ollama' models
&lt;https://ollama.com&gt;. The package identifies issues that
rule-based tools cannot detect: abbreviation variants,
typographic errors, case inconsistencies, and malformed values.
Results are returned as tidy data frames with column, row
index, detected value, issue type, suggested fix, and
confidence score. An offline fallback using statistical and
fuzzy-matching methods is provided for use without any
application programming interface (API) key. Interactive fix
application with human review is supported via 'apply_fixes()'.
Methods follow de Jonge and van der Loo (2013)
&lt;https://cran.r-project.org/doc/contrib/de_Jonge+van_der_Loo-Introduction_to_data_cleaning_with_R.pdf&gt;
and Chaudhuri et al. (2003) &lt;doi:10.1145/872757.872796&gt;.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016115268</link><pubDate>Tue, 09 Jun 2026 15:30:34 GMT</pubDate><r:package>llmclean</r:package><r:version>0.1.1</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/llmclean</r:upstream><r:article><r:source>llmclean-intro.Rmd</r:source><r:filename>llmclean-intro.html</r:filename><r:title>LLM-Assisted Data Cleaning with llmclean</r:title><r:created>2026-04-22 14:14:02</r:created><r:modified>2026-04-22 14:14:02</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] NRMstatsML 0.1.4</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>A comprehensive toolkit for statistical and machine
learning-based analysis of long-term Natural Resource
Management (NRM) datasets. Integrates formula-driven
approaches, statistical inference, and machine learning (ML)
models for advanced analytics. Modules cover trend and
structural analysis (Mann-Kendall test, slope estimation, Chow
test, structural break detection), multivariate system
modelling (Partial Least Squares (PLS), Structural Equation
Modelling (SEM)), response curve optimisation, time-series
forecasting (Autoregressive Integrated Moving Average (ARIMA),
hybrid models), panel data and treatment effects
(Difference-in-Differences (DiD), causal machine learning),
uncertainty and sensitivity analysis (bootstrap, Monte Carlo,
Bayesian), and automated model selection and performance
comparison. Designed for long-term datasets covering soil,
water, crop, and climate domains. Key references: Mann and
Kendall (1945) &lt;doi:10.2307/1907187&gt;; Sen (1968)
&lt;doi:10.1080/01621459.1968.10480934&gt;; Bai and Perron (2003)
&lt;doi:10.1002/jae.659&gt;; Rosseel (2012)
&lt;doi:10.18637/jss.v048.i02&gt;; Croissant and Millo (2008)
&lt;doi:10.18637/jss.v027.i02&gt;.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016120333</link><pubDate>Sun, 07 Jun 2026 18:30:08 GMT</pubDate><r:package>NRMstatsML</r:package><r:version>0.1.4</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/NRMstatsML</r:upstream><r:article><r:source>advanced-workflows.Rmd</r:source><r:filename>advanced-workflows.html</r:filename><r:title>Advanced Modelling Workflows with NRMstatsML</r:title><r:created>2026-06-07 18:30:08</r:created><r:modified>2026-06-07 18:30:08</r:modified></r:article><r:article><r:source>getting-started.Rmd</r:source><r:filename>getting-started.html</r:filename><r:title>Getting Started with NRMstatsML</r:title><r:created>2026-06-07 18:30:08</r:created><r:modified>2026-06-07 18:30:08</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] ensembleML 0.2.5</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides a clean, unified interface for training,
predicting, and evaluating ensemble machine learning models
including Random Forest, Gradient Boosting ('XGBoost'),
'AdaBoost', and 'Bagging'. All algorithms share a consistent
API: em_fit(), em_predict(), em_evaluate(), and em_tune().
Includes built-in cross-validation, feature importance,
calibration diagnostics, partial dependence plots, and model
comparison utilities. Methods: Breiman (2001)
&lt;doi:10.1023/A:1010933404324&gt;; Chen and Guestrin (2016)
&lt;doi:10.1145/2939672.2939785&gt;; Freund and Schapire (1997)
&lt;doi:10.1006/jcss.1997.1504&gt;; Breiman (1996)
&lt;doi:10.1007/BF00058655&gt;.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016115181</link><pubDate>Fri, 05 Jun 2026 15:00:07 GMT</pubDate><r:package>ensembleML</r:package><r:version>0.2.5</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/ensembleML</r:upstream><r:article><r:source>getting-started.Rmd</r:source><r:filename>getting-started.html</r:filename><r:title>Getting Started with ensembleML</r:title><r:created>2026-06-05 15:00:07</r:created><r:modified>2026-06-05 15:00:07</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] NRMSampling 0.2.2</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides functions for probability and non-probability
sampling design, sample selection, and population estimation
tailored to natural resource management. Probability methods
include simple random sampling, stratified sampling, systematic
sampling, cluster sampling, and
probability-proportional-to-size sampling. Non-probability
methods include convenience, judgement-based, and quota
sampling. Estimation functions cover means, totals, ratio
estimators, regression estimators, and the unequal-probability
estimator of Horvitz and Thompson (1952, &lt;doi:10.2307/2280784&gt;)
for unequal-probability designs. Utilities support biomass,
soil-loss, and carbon-stock estimation from field plots.
Spatial extensions provide random, systematic, stratified, and
raster-weighted sampling within geographic polygons using the
'sf' and 'terra' packages, with extraction of remote-sensing
covariates at sample locations. Applications include forest
inventory, soil erosion monitoring, watershed studies, and
ecological field surveys.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016117991</link><pubDate>Wed, 22 Apr 2026 14:13:04 GMT</pubDate><r:package>NRMSampling</r:package><r:version>0.2.2</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/NRMSampling</r:upstream><r:article><r:source>NRMSampling.Rmd</r:source><r:filename>NRMSampling.html</r:filename><r:title>NRMSampling: Comprehensive Framework for Sampling Design and Estimation in Natural Resource Management</r:title><r:created>2026-04-22 14:13:04</r:created><r:modified>2026-04-22 14:13:04</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] agriDQ 0.1.3</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides a comprehensive pipeline for data quality checks
and statistical assumption diagnostics in agricultural
experimental data. Functions cover outlier detection using
Interquartile Range (IQR) fence, Z-score, modified Z-score
(Hampel identifier), Grubbs test and Dixon Q-test with
consensus flagging; missing data pattern analysis and mechanism
classification (Missing Completely At Random/Missing At
Random/Missing Not At Random (MCAR/MAR/MNAR)) via Little's
test; normality testing using Shapiro-Wilk, Anderson-Darling,
Kolmogorov-Smirnov, Lilliefors, Pearson chi-square and
Jarque-Bera tests; homogeneity of variance via Bartlett, Levene
and Fligner-Killeen tests; independence of errors via
Durbin-Watson, Breusch-Godfrey and Wald-Wolfowitz runs tests;
experimental design validation for Completely Randomised Design
(CRD), Randomised Complete Block Design (RCBD), Latin Square
Design (LSD) and factorial designs; qualitative variable
consistency checks; and automated HyperText Markup Language
(HTML) report generation. Designed to align with Findable,
Accessible, Interoperable and Reusable (FAIR) data principles.
Methods follow Gomez and Gomez (1984, ISBN:978-0471870920) and
Montgomery (2017, ISBN:978-1119492443).</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016108203</link><pubDate>Tue, 21 Apr 2026 19:42:01 GMT</pubDate><r:package>agriDQ</r:package><r:version>0.1.3</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/agriDQ</r:upstream></item><item><title>[sadikulislamiasri-hub] SQIpro 0.1.0</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides a comprehensive, modular framework for computing
the Soil Quality Index (SQI) using six established methods:
Linear Scoring (Doran and Parkin, 1994,
&lt;doi:10.2136/sssaspecpub35.c1&gt;), Regression-based (Masto et
al., 2008, &lt;doi:10.1007/s10661-007-9697-z&gt;), Principal
Component Analysis-based (Andrews et al., 2004,
&lt;doi:10.2136/sssaj2004.1945&gt;), Fuzzy Logic, Entropy Weighting
(Shannon, 1948, &lt;doi:10.1002/j.1538-7305.1948.tb01338.x&gt;), and
TOPSIS (Hwang and Yoon, 1981, &lt;doi:10.1007/978-3-642-48318-9&gt;).
Implements four variable scoring functions: more-is-better,
less-is-better, optimum-value, and trapezoidal, following
Karlen and Stott (1994, &lt;doi:10.2136/sssaspecpub35.c4&gt;).
Includes automated Minimum Data Set selection via Principal
Component Analysis with Variance Inflation Factor filtering
(Kaiser, 1960, &lt;doi:10.1177/001316446002000116&gt;), one-way ANOVA
with Tukey HSD post-hoc tests, leave-one-out sensitivity
analysis, and publication-quality visualization using
'ggplot2'.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016126801</link><pubDate>Mon, 20 Apr 2026 14:16:55 GMT</pubDate><r:package>SQIpro</r:package><r:version>0.1.0</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/SQIpro</r:upstream><r:article><r:source>getting_started.Rmd</r:source><r:filename>getting_started.html</r:filename><r:title>Getting Started with SQIpro: Comprehensive Soil Quality Index</r:title><r:created>2026-04-20 14:16:55</r:created><r:modified>2026-04-20 14:16:55</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] swcEcon 0.1.0</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides functions and benchmark datasets for the economic
appraisal of soil and water conservation (SWC) measures in
watershed development projects. Implements benefit-cost ratio
(BCR), net present value (NPV), internal rate of return (IRR)
via the bisection method of Brent (1973, ISBN:9780130223715),
modified BCR, marginal rate of return using the CIMMYT (1988,
ISBN:9686127127) method, payback period, soil loss economic
valuation via the Universal Soil Loss Equation of Wischmeier
and Smith (1978, ISBN:0160016258), groundwater recharge
valuation, employment generation ratio, sensitivity analysis,
switching value analysis, and Monte Carlo simulation. Six
datasets are included: state-wise BCR benchmarks from NABARD
(2019) watershed evaluations, USLE erodibility parameters for
Indian soil orders from NBSS and LUP, rainfall erosivity for
twenty Indian districts from IMD data, SWC unit cost norms from
PMKSY-WDC (GoI 2015), and two hypothetical datasets for
illustration. Methods follow Gittinger (1982,
ISBN:9780801825439) and Squire and van der Tak (1975,
ISBN:9780801816697).</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016128439</link><pubDate>Thu, 16 Apr 2026 21:07:30 GMT</pubDate><r:package>swcEcon</r:package><r:version>0.1.0</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/swcEcon</r:upstream><r:article><r:source>swcEcon-intro.Rmd</r:source><r:filename>swcEcon-intro.html</r:filename><r:title>Economic Analysis of SWC Measures using swcEcon</r:title><r:created>2026-04-16 21:07:30</r:created><r:modified>2026-04-16 21:07:30</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] agriReg 0.1.0</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Fit, compare, and visualise linear and nonlinear
regression models tailored to field-trial and dose-response
agricultural data. Provides S3 classes for mixed-effects models
(via 'lme4'), nonlinear growth curves (logistic, 'Gompertz',
asymptotic, linear-plateau, quadratic), and four/five-parameter
log-logistic dose-response models (via 'drc'). Includes
automated starting-value heuristics, goodness-of-fit
statistics, residual diagnostics, and 'ggplot2'-based
visualisation. Methods are based on Bates and Watts (1988,
ISBN:9780471816430), Ritz and others (2015)
&lt;doi:10.1371/journal.pone.0146021&gt;, and Bates and others (2015)
&lt;doi:10.18637/jss.v067.i01&gt;.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016109678</link><pubDate>Tue, 31 Mar 2026 15:40:35 GMT</pubDate><r:package>agriReg</r:package><r:version>0.1.0</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/agriReg</r:upstream><r:article><r:source>advanced-mixed-models.Rmd</r:source><r:filename>advanced-mixed-models.html</r:filename><r:title>Advanced: Mixed models and multi-environment trials</r:title><r:created>2026-03-31 15:40:35</r:created><r:modified>2026-03-31 15:40:35</r:modified></r:article><r:article><r:source>getting-started.Rmd</r:source><r:filename>getting-started.html</r:filename><r:title>Getting started with agriReg</r:title><r:created>2026-03-31 15:40:35</r:created><r:modified>2026-03-31 15:40:35</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] soiltillr 0.1.0</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Provides tools to record, validate, and analyse soil
tillage depth and erosion across years and field treatments.
Includes functions for year-wise tillage operation summaries,
erosion depth tracking, compaction detection, soil loss
estimation, and visualisation of temporal changes in tillage
and erosion profiles. Methods follow Lal (2001)
&lt;doi:10.1201/9780203739280&gt; and Renard et al. (1997)
&quot;Predicting Soil Erosion by Water: A Guide to Conservation
Planning with the Revised Universal Soil Loss Equation (RUSLE)&quot;
&lt;https://ntrl.ntis.gov/NTRL/dashboard/searchResults/titleDetail/PB97153704.xhtml&gt;.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016124366</link><pubDate>Mon, 23 Mar 2026 17:30:02 GMT</pubDate><r:package>soiltillr</r:package><r:version>0.1.0</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/soiltillr</r:upstream><r:article><r:source>introduction-to-soiltillr.Rmd</r:source><r:filename>introduction-to-soiltillr.html</r:filename><r:title>Introduction to soiltillr</r:title><r:created>2026-03-23 17:30:02</r:created><r:modified>2026-03-23 17:30:02</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] rainerosr 0.1.1</title><author>sadikul.islamiasri@gmail.com (Sadikul Islam)</author><description>Calculates I30 (maximum 30-minute rainfall intensity) and
EI30 (erosivity index) from rainfall breakpoint data. Supports
multiple storm events, rainfall validation, and visualization
for soil erosion modeling and hydrological analysis. Methods
are based on Brown and Foster (1987) &lt;doi:10.13031/2013.30422&gt;,
Wischmeier and Smith (1978) &quot;Predicting Rainfall Erosion
Losses: A Guide to Conservation Planning&quot;
&lt;doi:10.22004/ag.econ.171903&gt;, and Renard et al. (1997)
&quot;Predicting Soil Erosion by Water: A Guide to Conservation
Planning with the Revised Universal Soil Loss Equation (RUSLE)&quot;
(USDA Agriculture Handbook No. 703).</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016122826</link><pubDate>Thu, 19 Mar 2026 14:50:10 GMT</pubDate><r:package>rainerosr</r:package><r:version>0.1.1</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/rainerosr</r:upstream><r:article><r:source>getting-started.Rmd</r:source><r:filename>getting-started.html</r:filename><r:title>Getting Started with rainerosr</r:title><r:created>2026-03-19 14:50:10</r:created><r:modified>2026-03-19 14:50:10</r:modified></r:article><r:article><r:source>terminology.Rmd</r:source><r:filename>terminology.html</r:filename><r:title>Terminology and Background</r:title><r:created>2026-03-19 14:50:10</r:created><r:modified>2026-03-19 14:50:10</r:modified></r:article></item><item><title>[sadikulislamiasri-hub] CREDS 0.1.0</title><author>sadikul.islamiasri@gmail.com (Dr. Sadikul Islam)</author><description>Population ratio estimator (calibrated) under two-phase
random sampling design has gained enormous popularity in the
recent time. This package provides functions for estimation
population ratio (calibrated) under two phase sampling design,
including the approximate variance of the ratio estimator. The
improved ratio estimator can be applicable for both the case,
when auxiliary data is available at unit level or aggregate
level (eg., mean or total) for first phase sampled. Calibration
weight of each unit of the second phase sample was calculated.
Single and combined inclusion probabilities were also estimated
for both phases under two phase random [simple random sampling
without replacement (SRSWOR)] sampling. The improved ratio
estimator's percentage coefficient of variation was also
determined as a measure of accuracy. This package has been
developed based on the theoretical development of Islam et al.
(2021) and Ozgul (2020) &lt;doi:10.1080/00949655.2020.1844702&gt;.</description><link>https://github.com/r-universe/sadikulislamiasri-hub/actions/runs/28016112168</link><pubDate>Fri, 01 Jul 2022 09:50:01 GMT</pubDate><r:package>CREDS</r:package><r:version>0.1.0</r:version><r:status>success</r:status><r:repository>https://sadikulislamiasri-hub.r-universe.dev</r:repository><r:upstream>https://github.com/cran/CREDS</r:upstream></item></channel></rss>