This is a short course on the Smoothed Particle
Hydrodynamics (SPH) numerical schemes and it will cover
basic and theoretical concepts, latest innovations. This
course is primarily aimed at the beginners with Master and
PhD students in mathematics, engineering, computer
science, physics, environmental disciplines, astrophysics
and biomedicine, amongst others. The contents will also be
of interest to post-doctoral fellows in academia and
industry, as well as to academics and practitioners.
The course will combine lectures on the basic theory and
numerical methods, with practical activities involving
computer-based experimentation using the DualSPHysics
open-source software provided with the course material.
The course will include a practical hands-on session using
the open source code DualSPHysics, an international
collaboration between five institutions: The University of
Manchester (UK), The University of Vigo (Spain), Flanders
Hydraulics (Belgium), University of Lisbon (Portugal) and
the University of Parma
(Italy):http://www.dual.sphysics.org
Course Lecturer:
Prof. Benedict Rogers
Professor Benedict Rogers is the Chair of Computational
Hydrodynamics at the School of Mechanical, Aerospace and
Civil Engineering (MACE) in the University of Manchester.
With his doctoral studies in numerical simulation of free-
surface flow for shallow water, he has more than 15 years
of experience of SPH research having published over 55
journal papers on SPH investigating fundamental
formulations, hardware acceleration and engineering
applications such as wave breaking, wave impact and multi-
phase flows. He is the current Chair (2015-2020) of the
Smoothed Particle Hydrodynamics rEsearch and engineeRing
International Community (SPHERIC), the international
organization representing developers, users and
researchers of SPH.
Dr. Renato Vacondio
Renato is an SIR (Scientific independence of Young
Researchers) Research Fellow at the University of Parma.
He obtained his PhD from the University of Parma in Italy
on SPH developing a new methodology for solving shallow
water flows. His research focuses on the development of
variable resolution for SPH including particle splitting
and merging within DualSPHysics for the Navier-Stokes
equations. He organised the 2015 SPHERIC International SPH
workshop at the University of Parma, is a member of the
Steering Committee of SPHERIC
|