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#' RConics: Computations on conics
#'
#' A package to solve some conic related problems
#' (intersection of conics with lines and conics, arc length of an ellipse,
#' polar lines, etc.).
#'
#' Some of the functions are based on the \emph{projective} geometry.
#' In projective geometry parallel lines meet at an infinite point and
#' all infinite points are incident to a line at infinity.
#' Points and lines of a projective plane are represented by \emph{homogeneous}
#' coordinates, that means by 3D vectors: \eqn{(x, y, z)} for the points and
#' \eqn{(a, b, c)} such that \eqn{ax + by + c = 0} for the lines.
#' The Euclidian points correspond to \eqn{(x, y, 1)},
#' the infinite points to \eqn{(x, y, 0)}, the Euclidean lines to
#' \eqn{(a, b, c)} with \eqn{a \neq 0} or \eqn{b \neq 0}, the line at
#' infinity to \eqn{(0, 0, 1)}.
#'
#' \strong{Advice}: to plot conics use the package \code{conics}
#' from Bernard Desgraupes.
#'
#' This work was funded by the Swiss National Science Foundation within the
#' ENSEMBLE project (grant no. CRSI_132249).
#'
#' @import graphics
#' @import stats
#' @import utils
#' @references
#' Richter-Gebert, Jürgen (2011).
#' \emph{Perspectives on Projective Geometry - A Guided Tour Through Real and Complex Geometry},
#' Springer, Berlin, ISBN: 978-3-642-17285-4
"_PACKAGE"
#> [1] "_PACKAGE"
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