  We report on the computer implementation for toric geometry in the computer
algebra system $\texttt{OSCAR}$.
  The main architectural feature of $\texttt{OSCAR}$ is that its four
fundamental tools $\texttt{Antic}$ (Hecke, Nemo), $\texttt{GAP}$,
$\texttt{Polymake}$ and $\texttt{Singular}$ are $\mathit{integral~components}$,
rather than external software. Toric geometry benefits greatly from this
architecture.
  $\texttt{Julia}$ is a high-performance programming language designed for
numerical and scientific computing. The growing ecosystem of $\texttt{Julia}$
packages ensures its continued viability for scientific computing and data
analysis. Indeed, $\texttt{OSCAR}$ is written in $\texttt{Julia}$. This implies
that the performance of $\texttt{OSCAR}$ should be comparable or even better
than many other implementations.
