I'm a Spanish Astrophysicist living in Switzerland. Between fondues and chocolates I like to study explosive scenarios using the smoothed particle hydrodynamics technique (SPH). My main focus is on Supernova explosions, and I have developed one of the few hydrodynamics codes (SPHYNX) that can simulate in 3D both types of Supernovas: Type Ia and Core Collapse.
I'm also interested in mergers and collisions of stellar objects, like for example compact objects such as white dwarfs and neutron stars, and their relevance for Supernova explosions and gravitational wave emission.
Computational Astrophysics is a very demanding field, where the knowledge on Astrophysics meets the knowledge in high-performance computing (HPC). In that respect I'm also diving deeper in the world of efficient, resilient, and scalable computing, in order to enable more complex, detailed, and longer astrophysical simulations.
Additionally, my current position allows me to get in contact with researchers from different fields, including life sciences, imaging, and computational sciences. In this respect, I'm lucky enough to contribute to truly interdisciplinary projects.
SPHYNX is an open source density-based new-generation Smoothed Particle Hydrodynamics code for Astrophysical applications. This is an always ongoing project. SPHYNX is the result of a work over a span of decades. This is an state-of-the-art smoothed particle hydrodynamics code that includes the latest improvements in the world of SPH.
A moderately-sized nuclear network to assist multi-D hydrodynamic simulations of supernova explosions
Sanz, A.; Cabezón, R. M.; García-Senz, D.;
Proceedings of the 16th International Symposium of Nuclei in the Cosmos (2022)
Conservative, density-based smoothed particle hydrodynamics with improved partition of the unity and better estimation of gradients
García-Senz, D.; Cabezón, R. M.; Escartín, J. A.
A&A 659, A175 (2022)
A Smoothed Particle Hydrodynamics Mini-App for Exascale
Cavelan, A.; Cabezón, R. M.; Grabarczyk, M.; Ciorba, F. M.
PASC20, ACM proceedings for PASC conference (2020)
Self-gravitating barotropic equilibrium configurations of rotating bodies with SPH
García-Senz, D.; Cabezón, R. M.; Blanco-Iglesias, J.M.; Lorén-Aguilar, P.
A&A 637, A61 (2020)
Two-level dynamic load balancing for high performance scientific applications
Mohammed, A.; Cavelan, A.; Ciorba, F.; Cabezón, R. M.; Banicescu, I.
SIAM proceedings of the Conference on Parallel Processing for Scientific Computing PP20 (2020)
A multi-dimensional implementation of the Advanced Spectral neutrino Leakage scheme
Gizzi, D.; O'Connor, E.; Rosswog, S.; Perego, A.; Cabezón, R. M.; Nativi, L.
MNRAS, 490, 4211 (2019)
Finding Neighbors in a Forest: A b-tree for Smoothed Particle Hydrodynamics Simulations
Cavelan, A.; Cabezón, R. M.; Korndorfer, J. H. M., Ciorba, F.
Accepted at SPHERIC 2019
Explosion of fast spinning sub-Chandrasekhar mass white dwarfs
Domínguez, I.; Cabezón, R. M.; García-Senz, D.
Nuclei in the Cosmos XV. Springer Proceedings in Physics, 219 (2019)
SPH-EXA: Enhancing the Scalability of SPH codes via an Exascale-ready SPH mini-app
Guerrera, D.; Cavelan, A.; Cabezón, R. M.; Imbert, D.; Piccinali, J.-G.; Mohammed, A.; Mayer, L.; Reed, D.; Ciorba, F.
Detection of silent data corruptions in Smooth Particle Hydrodynamics simulations
Cavelan, A.; Cabezón, R. M.; Ciorba, F.
Proceedings for IEEE/ACM International Symposium on Cluster Computing and the Grid CCGrid'19 (2019)
Core collapse Supernova
Type Ia Supernova in rotating WDs
Test the feasibility if the GCD scenario as SNIa engine taking into account the Coriolis forces that appear in rotating WDs.
Development in the Smoothed Particle Hydrodynamics method. Hydrodynamical instabilities and the Integral Approach to Derivatives. Dynamically adaptative kernels. 2D-axial SPH and self-gravity. Generalized volume elements.