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Non-Ordered Vectors
Functionality for manipulating values of associative
maps. The package is a dependency for mvp-type
packages that use the STL map class: it traps
plausible idiom that is ill-defined (implementation-specific) and
returns an informative error, rather than returning a possibly
incorrect result. To cite the package in publications please use
Hankin (2022)
Display Tournament Fixtures using Knock Out and Round Robin Techniques
Use of Knock Out and Round Robin Techniques in preparing tournament fixtures as discussed in the Book Health and Physical Education by 'Dr. V K Sharma'(2018,ISBN:978-93-5272-134-4).
Joint Segmentation of Correlated Time Series
It contains a function designed to the joint segmentation in the mean of several correlated series. The method is described in the paper X. Collilieux, E. Lebarbier and S. Robin. A factor model approach for the joint segmentation with between-series correlation (2015)
The Davies Quantile Function
Various utilities for the Davies distribution.
Example Data Sets for Causal Inference Textbooks
Example data sets to run the example problems from causal inference textbooks. Currently, contains data sets for Huntington-Klein, Nick (2021 and 2025) "The Effect" < https://theeffectbook.net>, first and second edition, Cunningham, Scott (2021 and 2025, ISBN-13: 978-0-300-25168-5) "Causal Inference: The Mixtape", and HernĂ¡n, Miguel and James Robins (2020) "Causal Inference: What If" < https://www.hsph.harvard.edu/miguel-hernan/causal-inference-book/>.
Discrimination/Classification in very high dimension with linear and quadratic rules.
This package provides an implementation of Linear discriminant analysis and quadratic discriminant analysis that works fine in very high dimension (when there are many more variables than observations).
Optimisation with Continuous Convex Piecewise (Linear and Quadratic) Functions
Continuous convex piecewise linear (ccpl) resp. quadratic (ccpq) functions can be implemented with sorted breakpoints and slopes. This includes functions that are ccpl (resp. ccpq) on a convex set (i.e. an interval or a point) and infinite out of the domain. These functions can be very useful for a large class of optimisation problems. Efficient manipulation (such as log(N) insertion) of such data structure is obtained with map standard template library of C++ (that hides balanced trees). This package is a wrapper on such a class based on Rcpp modules.
Poisson Lognormal Models
The Poisson-lognormal model and variants (Chiquet,
Mariadassou and Robin, 2021
Scalable Causal Discovery and Model Selection on Mixed Datasets with 'rCausalMGM'
Scalable methods for learning causal graphical models from mixed data, including continuous, discrete, and censored variables. The package implements CausalMGM, which combines a convex, score-based approach for learning an initial moralized graph with a producer-consumer scheme that enables efficient parallel conditional independence testing in constraint-based causal discovery algorithms. The implementation supports high-dimensional datasets and provides individual access to core components of the workflow, including MGM and the PC-Stable and FCI-Stable causal discovery algorithms. To support practical applications, the package includes multiple model selection strategies, including information criteria based on likelihood and model complexity, cross-validation for out-of-sample likelihood estimation, and stability-based approaches that assess graph robustness across subsamples.
Three-Dimensional Exploratory Projection Pursuit
Exploratory projection pursuit is a method to discovers
structure in multivariate data. At heart this package uses
a projection index to evaluate how interesting a specific
three-dimensional projection of multivariate data (with more
than three dimensions) is. Typically, the main structure
finding algorithm starts at a random projection and then
iteratively changes the projection direction to move to
a more interesting one. In other words, the projection index
is maximised over the projection direction to find the most
interesting projection. This maximum is, though, a local
maximum. So, this code has the ability to restart the
algorithm from many different starting positions automatically.
Routines exist to plot a density estimate of projection indices
over the runs, this enables the user to obtain an idea of
the distribution of the projection indices,
and, hence, which ones might be interesting. Individual
projection solutions, including those identified as interesting,
can be extracted and plotted individually. The package
can make use of the mclapply() function to execute multiple runs in
parallel to speed up index discovery. Projection pursuit is
similar to independent component analysis. This package
uses a projection index that maximises an entropy measure to
look for projections that exhibit non-normality, and operates
on sphered data. Hence, information from this package is
different from that obtained from principal components analysis,
but the rationale behind both methods is similar.
Nason, G. P. (1995)