@@ -51,6 +51,11 @@ <h2>Overview</h2>
5151 < td > < b > Title</ b > </ td >
5252 < td > < b > Date</ b > </ td >
5353 </ tr >
54+ < tr >
55+ < td > Rene Gassmoeller</ td >
56+ < td > < a href ="#fy269 "> What We Need to Model Planetary Interiors: The Role of Research Software in Computational Geodynamics</ a > </ td >
57+ < td > 10/15/2025</ td >
58+ </ tr >
5459 < tr >
5560 < td > Maxwell Cole</ td >
5661 < td > < a href ="#fy267 "> First digital biophysical model of the entire human cardiovascular system</ a > </ td >
@@ -160,6 +165,51 @@ <h2>Overview</h2>
160165
161166< h2 > Talks</ h2 >
162167
168+ < div id ="fy269 "> </ div >
169+ < h3 > What We Need to Model Planetary Interiors: The Role of Research Software in Computational Geodynamics</ h3 >
170+ Speaker: Rene Gassmoeller< br >
171+ GEOMAR Helmholtz Centre for Ocean Research Kiel, Germany< br > < br >
172+
173+ Abstract:
174+ < p >
175+ Geodynamics - understanding the internal dynamics of the Earth and
176+ other planets - depends heavily on the use of numerical algorithms and
177+ their software implementations to make sense of the data we collect
178+ and to understand our exposure to geohazards and the availability of
179+ georesources. The software we use to understand these processes varies
180+ from solvers for wave propagation and elastic deformation over
181+ reactive multi-phase flow models and magneto-hydro-dynamics to
182+ micro-scale mineral physics processes and ab initio material property
183+ prediction. As varied as the software is typically their development
184+ history, and with the advent of modern standards for research software
185+ the geodynamics community decided in 2005 to establish an organization
186+ dedicated to improving software standards - the Computational
187+ Infrastructure for Geodynamics, CIG. 20 years later I will discuss the
188+ role that CIG has played in supporting research software in the field
189+ of computational geodynamics, and the lessons we learned. I will also
190+ present application cases of CIG software, with a particular focus on
191+ the ASPECT software - the Advanced Solver for Planetary Evolution,
192+ Convection, and Tectonics - and how it helps us to understand
193+ deformation processes in Earth's interior, such as the movement of
194+ tectonic plates, and the influence of mineral phase transitions on
195+ Earth's long-term evolution.
196+ </ p >
197+
198+ Bio:
199+ < p >
200+ Rene Gassmoeller is a staff scientist at the GEOMAR Helmholtz
201+ Centre for Ocean Research Kiel, and previously was the technical lead
202+ for the NSF-funded community organization Computational Infrastructure
203+ for Geodynamics. He completed his PhD at the German Research Centre
204+ for Geosciences (GFZ) in Potsdam, Germany and did postdoctoral work at
205+ Texas A&M University, Colorado State University and the University of
206+ California, Davis as well as an appointment as visiting assistant
207+ professor and research scientist at the University of Florida. His
208+ research interests lie in computational geodynamics, numerical
209+ mathematics, and software engineering, with a particular focus on
210+ processes in the deep Earth and developing the software we need to
211+ understand them.
212+ </ p >
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164214< div id ="fy267 "> </ div >
165215< h3 > First digital biophysical model of the entire human cardiovascular system</ h3 >
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