SFB 1313 Course "Parallel Scientific Computing with Applications in Porous Media"

October 28, 2024 /

13-week SFB 1313 course, starting on 28 Oct 2024 | Dr. Andreas Yiotis from the School of Mineral Resources Engineering of the Technical University of Crete (Greece)

SFB 1313 guest professor Andras Yiotis from the School of Mineral Resources Engineering of the Technical University of Crete (Greece), will give a 13-week SFB 1313 course, entitled "Parallel Scientific Computing with Applications in Porous Media". It will start on 28 October 2024. The course is open to SFB 1313 doctoral researchers and open to master students from COMMAS and other study programs. Please contact Samaneh Vahid Dastjerdi (samaneh.vahiddastjerdi@mechbau.uni-stuttgart.de) regarding the participation in the course.

Course: "Parallel Scientific Computing with Applications in Porous Media"
Instructor:
Andreas Yiotis, Associate Professor TUC
Weekly schedule: Mondays, from 28 Oct on, at 3.45 pm (90 mins theory + hands on exercises)
Duration: 13 weeks
Location: Campus Vaihingen, Pfaffenwaldring 9, room 3.141 (IAM’s seminar room).
ECTS: 6

 Short description

This course is an introduction to the basic concepts and techniques of parallel scientific computing using the standard Message Passing Interface (MPI) and OpenMP protocols with applications on massively parallel supercomputer systems. These protocols are widely used for the computationally efficient solution of large-scale computational scientific and engineering problems, including those of aerodynamics around vehicles, planes and complex structures (i.e. wind turbines), the dynamics of buildings and bridges, in weather forecasting and in complex porous media. The course includes an introduction to the characteristics and differences between shared- and distributed-memory computational systems, with particular emphasis on the basic components of distributed-memory systems and their individual role. The main structure of a parallel code is analyzed with respect to the standard serial approach, and typical domain decomposition strategies are presented. The main point-to-point and collective communication routines among computational nodes are presented, and their specific usage in selected applications is analyzed. The course includes also hands-on practice in the development of numerical modeling algorithms for the efficient solution of large-scale systems of linear equations for scientific computing applications.

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