On realistic network topologies for simulation
Oliver Heckmann, Michael Piringer, Jens Schmitt, Ralf Steinmetz
Abstract
Oliver Heckmann, Michael Piringer, Jens Schmitt, Ralf Steinmetz
Abstract
Abstract — Simulations are an important tool in network research. As the selected topology often influences the outcome of the simulation, realistic topologies are needed to produce realistic simulation results. We first discuss the different types of topologies and present our collection of real-world topologies that can be used for simulation. We then define several similarity metrics to compare artificially generated topologies with real world topologies. We use them to find out what the input parameter range of the topology generators of BRITE, TIERS and GT-ITM are to create realistic topologies. These parameters can act as a valuable starting point for researchers that have to generate artificial topologies.
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Abstract — Simulations are an important tool in network research. As the selected topology often influences the outcome of the simulation, realistic topologies are needed to produce realistic simulation results. We first discuss the different types of topologies and present our collection of real-world topologies that can be used for simulation. We then define several similarity metrics to compare artificially generated topologies with real world topologies. We use them to find out what the input parameter range of the topology generators of BRITE, TIERS and GT-ITM are to create realistic topologies. These parameters can act as a valuable starting point for researchers that have to generate artificial topologies.
Key concepts: Network topology, Computer science, Network simulation, Topology (electrical circuits), Computer network, Engineering, Electrical engineering