Computational Astrophysical Sciences
Integrated Code Development Initiative for Computational Astrophysical Sciences
CompAS: Towards Next Generation Computational Astrophysics
- Dedicated project for computational astrophysics at ASIAA since 2001
- Development of in-house codes with state-of-the-art numerical methods as well as using and improving the community codes remains one of the key objectives
- Targeted physics regimes range from Newtonian hydrodynamics to relativistic magnetohydrodynamics
- Dedicated to harnessing new computational architectures
- Optimized for challenging astrophysical systems requiring innovative and dedicated methodology development
Student Opportunity:
Explorations of Numerical Codes and Solvers in Astrophysical Systems
Explorations of Numerical Codes and Solvers in Astrophysical Systems
The ASIAA Computational Astrophysics (CompAS) Project invites applications for an exciting student opportunity to explore and validate cutting-edge numerical codes and solvers designed for astrophysical systems. This program offers hands-on experience in computational astrophysics, focusing on hydrodynamics (HD), magnetohydrodynamics (MHD), and particle-based simulations, spanning Newtonian to General Relativistic regimes.
- You will
- Work with state-of-the-art numerical methods and physics-based solvers under active development.
- Engage in projects covering astrophysical phenomena such as young stars, black holes, and plasma physics.
- Test and benchmark the performance of advanced numerical methods for HD, MHD, and particle problems.
- Explore emerging fields such as machine learning (ML) and artificial intelligence (AI) applications in computational astrophysics.
- Tailored project assignments based on academic background and readiness.
- You will
- Gain valuable numerical methods, code development, and scientific verification skills.
- Build a strong foundation for science, engineering, computing, or astrophysics research careers.
- Collaborate with leading scientists at ASIAA.
- Eligibility:
- Strong college-level applied mathematics, physics, fluid mechanics, and numerical techniques
- Proficiency in Python, C/C++, or Fortran
- Knowledge on interactive plotting or visualization tools
- Strong ability to read, write, and communicate effectively in English is required.
Black Holes
Computational Astrophysics
Hydrodynamics
Magnetohydrodynamics
Plasma Physics
Machine Learning
AI
Numerical Methods
Young Stars