Simon Portegies Zwart

Author Info

Name	Affiliation	Papers
SIMON PORTEGIES ZWART	Section Computational Science, University of Amsterdam, Amsterdam, The Netherlands	34
Collaborators	Citations	PageRank
46	192	23.58
Referers	Referees	References
411	380	224

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100411

Publications (34 rows)

Collaborators (46 rows)

Referers (100 rows)

Referees (100 rows)

Title	Citations	PageRank	Year
Non-intrusive hierarchical coupling strategies for multi-scale simulations in gravitational dynamics	0	0.34	2020
Creating A Reusable Cross-Disciplinary Multi-Scale And Multi-Physics Framework: From Amuse To Omuse And Beyond	0	0.34	2019
Development Of The Omuse/Amuse Modeling System	0	0.34	2018
Numerical verification of the microscopic time reversibility of Newton's equations of motion: Fighting exponential divergence.	1	0.36	2018
OMUSE: Oceanographic multipurpose software environment	0	0.34	2016
Creating the Virtual Universe.	0	0.34	2016
From Thread to Transcontinental Computer: Disturbing Lessons in Distributed Supercomputing	1	0.39	2015
Sapporo2: A versatile direct $N$-body library	1	0.36	2015
Using GPUs to Enable Simulation with Computational Gravitational Dynamics in Astrophysics	2	0.43	2015
On the minimal accuracy required for simulating self-gravitating systems by means of direct N-body methods.	3	0.48	2014
24.77 Pflops on a gravitational tree-code to simulate the Milky Way Galaxy with 18600 GPUs	13	0.89	2014
MPWide: a light-weight library for efficient message passing over wide area networks.	3	0.42	2013
The Astronomical Multipurpose Software Environment and the Ecology of Star Clusters.	0	0.34	2013
Multi-physics simulations using a hierarchical interchangeable software interface.	15	1.00	2013
A sparse octree gravitational N-body code that runs entirely on the GPU processor	49	3.29	2012
Bonsai: A GPU Tree-Code	2	0.53	2012
High-Performance Distributed Multi-Model / Multi-Kernel Simulations: A Case-Study in Jungle Computing	6	0.52	2012
High Performance Gravitational N-body Simulations on a Planet-wide Distributed Supercomputer	6	0.51	2011
High performance cosmological simulations on a grid of supercomputers	2	0.39	2011
Simulating the universe on an intercontinental grid of supercomputers	3	0.50	2010
A platform independent communication library for distributed computing	0	0.34	2010
The Living Application: a Self-Organizing System for Complex Grid Tasks	1	0.37	2010
Simulating the Universe on an Intercontinental Grid	3	0.44	2010
A Light-Weight Communication Library for Distributed Computing	1	0.37	2010
Gravitational tree-code on graphics processing units: implementation in CUDA	9	0.98	2010
SAPPORO: A way to turn your graphics cards into a GRAPE-6	19	2.24	2009
On the Origin of Grid Species: The Living Application	5	0.50	2009
Simulating N-Body Systems on the Grid Using Dedicated Hardware	1	0.36	2008
Regular Paper: Interactive N-Body Simulations On the Grid: HLA Versus MPI	4	0.43	2007
A parallel gravitational N-body kernel	2	0.48	2007
High-performance direct gravitational N-body simulations on graphics processing units	21	2.65	2007
Distributed N-body simulation on the grid using dedicated hardware	2	0.42	2007
Performance analysis of direct N-body algorithms for astrophysical simulations on distributed systems	16	1.55	2007
Performance of a parallel astrophysical n-body solver on pan-european computational grids	1	0.37	2005