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Numerical relativity
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How to simulate coalescing binary black holes?
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Gravitational waves
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Lecture plan
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Numerical Relativity
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Early & Brief History
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2005 - Pretorius
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Components of NR
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Goal of NR
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Projection into
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Differential geometry w / in
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Extrinsic curvature:
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Adopted coordinates
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Can also show
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Further, all spatial objects objects collapse to 3 -D ones
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Decomposing curvature & E. Egs.
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Comments
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Basics of Partial Difference Equation
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Solving Constraints
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Conformal trato
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Side remark
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Solved by e.g
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BH momentum of spin : Transverse- traceless decomp of Kip
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"Puncture initial data multi - BH boosted spinning BHS.
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Evolutions -Strategies to modify equations
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BSSN equations
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Q&A
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Note
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Constraint damping
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Q&A
Description:
Dive into a comprehensive lecture on numerical relativity and the mathematical formulation of simulating coalescing binary black holes. Explore the fundamental concepts of gravitational waves, the history of numerical relativity, and its key components. Learn about the goals of numerical relativity, differential geometry, extrinsic curvature, and adopted coordinates. Examine the decomposition of curvature, partial differential equations, constraint solving techniques, and the BSSN equations. Gain insights into black hole momentum and spin, puncture initial data for multi-black hole systems, and evolution strategies. Engage with Q&A sessions and discussions on constraint damping, providing a thorough understanding of this complex field in gravitational wave astrophysics.

Numerical Relativity - Mathematical Formulation by Harald Pfeiffer

International Centre for Theoretical Sciences
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