Recent analytical and numerical techniques applied to the Einstein equations
Dave Neilsen, Luis Lehner, Olivier Sarbach, Manuel Tiglio

TL;DR
This paper reviews recent analytical and numerical methods for solving Einstein's equations, demonstrating their effectiveness through examples involving black hole and bubble spacetimes, highlighting advances and challenges in numerical relativity.
Contribution
It introduces new numerical techniques and insights for Einstein's equations, showcasing their application to complex spacetime simulations and addressing computational difficulties.
Findings
Accurate numerical solutions can resolve open questions in black hole physics.
Numerical methods reveal unexpected phenomena in bubble spacetimes.
Challenges in 3D black hole simulations are identified and potential remedies are discussed.
Abstract
Combining deeper insight of Einstein's equations with sophisticated numerical techniques promises the ability to construct accurate numerical implementations of these equations. We illustrate this in two examples, the numerical evolution of ``bubble'' and single black hole spacetimes. The former is chosen to demonstrate how accurate numerical solutions can answer open questions and even reveal unexpected phenomena. The latter illustrates some of the difficulties encountered in three-dimensional black hole simulations, and presents some possible remedies.
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