The SEIDD Project
Many evolutionary (or time dependent) systems studied in sciences and
engineering are governed by parabolic equations. To understand these
systems quantitatively requires solving the governing equations to an
adequate accuracy. Numerical solution of parabolic equations needs
sampling points in both spatial and temporal dimensions, which results
in large amounts of data, thereby demanding high computing power in
both computing speed and memory capacity. The Stable Explicit-Implicit
Domain Decomposition (SEIDD) is a class of globally non-iterative,
non-overlapping Domain Decomposition algorithms for solving parabolic
equations on parallel computers. Since global iterations and overlapping
incur both computation and communication overheads, global non-iterativeness
and non-overlapping are highly desired properties for domain decomposition
algorithms.