000			03549nam a2200325za04500
001			16549
008			050703s2011 xxu eng d
020			_a9781441955746 99781441955746
082			_a621.382 _b223
245			_aRemote Instrumentation Services on the e-Infrastructure _h[electronic resource]: _bApplications and Tools / _cedited by Franco Davoli, Norbert Meyer, Roberto Pugliese, Sandro Zappatore.
250			_a1.
300			_aX, 640p. 100 illus. _bonline resource.
505			_aGrid architectures with real-time control -- Grid middleware extensions for remote control of instruments and devices -- Resource Management -- Tele-measurement techniques -- Distributed synchronization and calibration -- Workflow management for large-scale experiments -- Virtualisation technology -- Visualization techniques -- Distributed data acquisition and sensor networks -- Management of large data sets -- Mobile and wireless grids -- Management of large-scale physics experiments -- Networking solutions in support of Grid architectures -- Reliability and fault tolerance -- Supporting interactive applications in the grid environment -- Collaborative environments for the Grid.
520			_aFranco Davoli Norbert Meyer Roberto Pugliese Sandro Zappatore (editors) Title: Remote Instrumentation for eScience and Related Aspects Accessing remote instrumentation worldwide is one of the goals of eScience. But the task of enabling the execution of complex experiments that involve the use of distributed scientific instruments requires a number of different architectural domains. Given the large number of different instruments and their application domains, understanding the common requirements, the user needs, the adaptation and convergence layers, among other things, is not simple, and that is the task of Remote Instrumentation Services (RIS). This text, like its predecessors, addresses the most relevant related aspects of RIS. Remote Instrumentation for eScience and Related Aspects is broken into five main parts. Part I centers on the concepts of Instrument Element and Virtual Control Room. Part II covers different features of Grid resource management on operations that are relevant in the context of RIS. Part III focuses on networking, one of the key supporting technologies that enable the interconnection of data sources and the transport of data. Part IV discusses application environments in various user communities, including eVLBI and its exploitation of high-speed networks, oceanographic applications, and road traffic data acquisition and modeling. And Part V is devoted to two learning environments where Remote Instrumentation plays a role of increasing importance; specifically it describes the main feature and demonstrator scenarios of BW-eLabs in Germany, and it reports on a distributed educational laboratory that is part of the "Wireless Trondheim" initiative in Norway.
650			_aEngineering. _996
650			_aEngineering. _996
650			_933627 _aCOMMUNICATIONS ENGINEERING, NETWORKS
650			_930656 _aTELECOMUNICACIÓN
700			_aDavoli, Franco. _935689
700			_eeditor. _935690
700			_aMeyer, Norbert. _935691
700			_eeditor. _935690
700			_aPugliese, Roberto. _935692
700			_eeditor. _935690
700			_aZappatore, Sandro. _935693
700			_eeditor. _935690
710			_aSpringerLink (Online service) _9111
856			_uhttp://springer.escuelaing.metaproxy.org/book/10.1007/978-1-4419-5574-6 _yir a documento _qURL
942			_2ddc _cCF
999			_c13833 _d13833