Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information
Grid Computing proposes unlimited access to different computational resources in a transparent way. High performance execution in grid environments is virtually impossible without timely access to accurate and up-to-date information related to distributed resources and services. Due to inherent diff...
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paper:paper_00375497_v88_n10_p1233_Mocskos2023-06-08T15:02:18Z Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information Grid Computing propagation policies resource discovery resource monitoring simulation Computational resources Distributed resources Global informations Grid environments Grid infrastructures Grid simulations Hierarchical policy Information propagation Modular designs Monitoring information Network topology Resource discovery Resource information Resource monitoring simulation Simulation framework Super-peer TeraGrid User friendly Virtual grids Electric network topology Graphical user interfaces Tools Grid computing Grid Computing proposes unlimited access to different computational resources in a transparent way. High performance execution in grid environments is virtually impossible without timely access to accurate and up-to-date information related to distributed resources and services. Due to inherent difficulty of testing the different information propagation policies in real grid infrastructures, several simulation frameworks arose to help in this issue. In this work, we present Grid Matrix, an extension to one of the most used grid simulation tools (SimGrid2) to focus on the propagation of monitoring and resource information allowing the creation of virtual grid infrastructures. This extension enables GUI editing of network topology and provides the feature of scripting to define simulation details based on the newly developed C++ and Python bindings of SimGrid2 API. As a case study, Grid Matrix was used to test four different policies: hierarchical, super-peer, best-neighbor and random. The simulated scenario consisted of 96 master nodes based on the real Teragrid infrastructure as was publicly available at the time of writing this paper. We introduce three metrics that capture and summarize the information propagation behavior: LIR, GIR and GIV. LIR captures the local behavior quantifying the amount of up-to-date information in each node. GIR evaluates the global information state in the whole network averaging the LIR values, while GIV measures the variability of LIR. In the presented case, the best results in terms of the proposed metrics were attained by the hierarchical policy, followed by super-peer which outperformed random and best-neighbor. The modern and modular design of the scripting features included in Grid Matrix, in close conjunction with the user friendly GUI happened to be a very powerful tool for the evaluation of new propagation policies of resource information. © 2012 The Society for Modeling and Simulation International. 2012 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00375497_v88_n10_p1233_Mocskos http://hdl.handle.net/20.500.12110/paper_00375497_v88_n10_p1233_Mocskos |
institution |
Universidad de Buenos Aires |
institution_str |
I-28 |
repository_str |
R-134 |
collection |
Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA) |
topic |
Grid Computing propagation policies resource discovery resource monitoring simulation Computational resources Distributed resources Global informations Grid environments Grid infrastructures Grid simulations Hierarchical policy Information propagation Modular designs Monitoring information Network topology Resource discovery Resource information Resource monitoring simulation Simulation framework Super-peer TeraGrid User friendly Virtual grids Electric network topology Graphical user interfaces Tools Grid computing |
spellingShingle |
Grid Computing propagation policies resource discovery resource monitoring simulation Computational resources Distributed resources Global informations Grid environments Grid infrastructures Grid simulations Hierarchical policy Information propagation Modular designs Monitoring information Network topology Resource discovery Resource information Resource monitoring simulation Simulation framework Super-peer TeraGrid User friendly Virtual grids Electric network topology Graphical user interfaces Tools Grid computing Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information |
topic_facet |
Grid Computing propagation policies resource discovery resource monitoring simulation Computational resources Distributed resources Global informations Grid environments Grid infrastructures Grid simulations Hierarchical policy Information propagation Modular designs Monitoring information Network topology Resource discovery Resource information Resource monitoring simulation Simulation framework Super-peer TeraGrid User friendly Virtual grids Electric network topology Graphical user interfaces Tools Grid computing |
description |
Grid Computing proposes unlimited access to different computational resources in a transparent way. High performance execution in grid environments is virtually impossible without timely access to accurate and up-to-date information related to distributed resources and services. Due to inherent difficulty of testing the different information propagation policies in real grid infrastructures, several simulation frameworks arose to help in this issue. In this work, we present Grid Matrix, an extension to one of the most used grid simulation tools (SimGrid2) to focus on the propagation of monitoring and resource information allowing the creation of virtual grid infrastructures. This extension enables GUI editing of network topology and provides the feature of scripting to define simulation details based on the newly developed C++ and Python bindings of SimGrid2 API. As a case study, Grid Matrix was used to test four different policies: hierarchical, super-peer, best-neighbor and random. The simulated scenario consisted of 96 master nodes based on the real Teragrid infrastructure as was publicly available at the time of writing this paper. We introduce three metrics that capture and summarize the information propagation behavior: LIR, GIR and GIV. LIR captures the local behavior quantifying the amount of up-to-date information in each node. GIR evaluates the global information state in the whole network averaging the LIR values, while GIV measures the variability of LIR. In the presented case, the best results in terms of the proposed metrics were attained by the hierarchical policy, followed by super-peer which outperformed random and best-neighbor. The modern and modular design of the scripting features included in Grid Matrix, in close conjunction with the user friendly GUI happened to be a very powerful tool for the evaluation of new propagation policies of resource information. © 2012 The Society for Modeling and Simulation International. |
title |
Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information |
title_short |
Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information |
title_full |
Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information |
title_fullStr |
Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information |
title_full_unstemmed |
Grid Matrix: A grid simulation tool to focus on the propagation of resource and monitoring information |
title_sort |
grid matrix: a grid simulation tool to focus on the propagation of resource and monitoring information |
publishDate |
2012 |
url |
https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_00375497_v88_n10_p1233_Mocskos http://hdl.handle.net/20.500.12110/paper_00375497_v88_n10_p1233_Mocskos |
_version_ |
1768542258611617792 |