We present a new code for solving the coupled Einstein-hydrodynamics equations to evolve relativistic, self-gravitating fluids. The Einstein field equations are solved on one grid using pseudospectral methods, while the fluids are evolved on another grid by finite differencing. We discuss implementation details, such as the communication between the grids and the treatment of stellar surfaces, and present code tests
We have developed a numerical code to study the evolution of self-gravitating matter in dynamic blac...
We describe the Einstein Toolkit, a community-driven, freely accessible computational infrastructure...
International audienceWe present a new three-dimensional general relativistic hydrodynamics code whi...
We present a new code for solving the coupled Einstein-hydrodynamics equations to evolve relativisti...
Current methods of evolving a spacetime containing one or more black holes are plagued by instabilit...
We present a new three-dimensional general relativistic hydrodynamics code, the Whisky code. This co...
A new numerical scheme to solve the Einstein field equations based upon the generalized harmonic dec...
The accuracy and stability of the Caltech-Cornell pseudospectral code is evaluated using the KST rep...
We present a new pseudo-spectral code for the simulation of evolution systems that are second order ...
The accuracy and stability of the Caltech-Cornell pseudospectral code is evaluated using the Kidder,...
International audienceWe present the derivation of hydrodynamical equations for a perfect fluid in G...
In this paper, we present a numerical study of the Einstein field equations, based on the 3 + 1 foli...
Abstract. We describe the Einstein Toolkit, a community-driven, freely accessible computational infr...
We investigate the dynamics of self-gravitating, spherically-symmetric distributions of fluid throug...
We solve Einstein's field equations coupled to relativistic hydrodynamics in full 3+1 general relati...
We have developed a numerical code to study the evolution of self-gravitating matter in dynamic blac...
We describe the Einstein Toolkit, a community-driven, freely accessible computational infrastructure...
International audienceWe present a new three-dimensional general relativistic hydrodynamics code whi...
We present a new code for solving the coupled Einstein-hydrodynamics equations to evolve relativisti...
Current methods of evolving a spacetime containing one or more black holes are plagued by instabilit...
We present a new three-dimensional general relativistic hydrodynamics code, the Whisky code. This co...
A new numerical scheme to solve the Einstein field equations based upon the generalized harmonic dec...
The accuracy and stability of the Caltech-Cornell pseudospectral code is evaluated using the KST rep...
We present a new pseudo-spectral code for the simulation of evolution systems that are second order ...
The accuracy and stability of the Caltech-Cornell pseudospectral code is evaluated using the Kidder,...
International audienceWe present the derivation of hydrodynamical equations for a perfect fluid in G...
In this paper, we present a numerical study of the Einstein field equations, based on the 3 + 1 foli...
Abstract. We describe the Einstein Toolkit, a community-driven, freely accessible computational infr...
We investigate the dynamics of self-gravitating, spherically-symmetric distributions of fluid throug...
We solve Einstein's field equations coupled to relativistic hydrodynamics in full 3+1 general relati...
We have developed a numerical code to study the evolution of self-gravitating matter in dynamic blac...
We describe the Einstein Toolkit, a community-driven, freely accessible computational infrastructure...
International audienceWe present a new three-dimensional general relativistic hydrodynamics code whi...