InfoSymbioticSystems/DDDAS与智能系统的大规模动态数据和大规模大计算

F. Darema
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引用次数: 3

摘要

本报告将讨论InfoSymbiotics/DDDAS,一个统一系统的范例。建模和仪表方面,并且正在创造新的和革命性的能力,以改进对工程和自然多实体系统的操作的理解、分析和优化、自主管理和决策支持,包括人类和社会系统。DDDAS的关键基本概念是在反馈控制回路中动态集成仪器仪表数据和系统的执行模型-即在线数据动态地纳入系统的执行模型,以提高建模精度或加快仿真速度,反过来,执行模型控制仪器仪表有选择性地和自适应地针对数据收集过程,并动态地管理传感器和控制器的集合集。DDDAS顺应了大规模动态数据和大规模大计算时代的到来。大规模动态数据包括传统的大数据和下一波大数据,即动态数据产生于无处不在的传感和控制在工程,自然和社会系统中,通过大量异构传感器和控制器对这些系统进行测量,这些“大规模”的机遇和挑战不仅与数据的大小有关,而且与数据,数据收集方式,数据保真度和时间尺度的异质性有关。从实时数据到档案数据。DDDAS需要将传统的中高端并行和分布式计算与实时数据采集和控制动态集成。因此,与动态数据的重要新维度相结合,DDDAS意味着大计算的扩展视图,其中包括计算的新维度-由众多传感器和控制器的网络组装的集体计算。DDDAS范式推动和开发了这些大规模动态数据和大规模大计算的概念,正在塑造研究方向,并在一系列自然和工程系统应用领域产生变革性影响。从纳米级到地尺度和地尺度外环境的应用领域,将展示的进步和新能力的例子包括:结构系统的材料分析和决策支持;制造系统;细胞、神经和生物机器人系统;环境系统;关键基础设施系统,如城市和空中交通、能源电网和智能农业。此外,在这些大规模大计算和大规模大数据环境中,系统软件所面临的挑战、机遇和进步也将在演讲中得到解决。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
InfoSymbioticSystems/DDDAS and Large-Scale Dynamic Data and Large-Scale Big Computing for Smart Systems
The presentation will discuss InfoSymbiotics/DDDAS, a paradigm which unifies systems? modeling and instrumentation aspects, and is creating new and revolutionary capabilities for improved understanding, analysis, and optimized, autonomic management and decision support of operational of engineered and natural multi-entity systems, and including human and societal systems. Key underlying concept in DDDAS is the dynamic integration of instrumentation data and executing models of the system in a feedback control loop - that is on-line data are dynamically incorporated into the systems' executing model, to improve the modeling accuracy or to speed-up the simulation, and in reverse the executing model controls the instrumentation to selectively and adaptively target the data collection process, and dynamically manage collective sets of sensors and controllers. DDDAS is timely and in-line with the advent of Large-Scale-Dynamic-Data and Large-Scale-Big-Computing. Large-Scale-Dynamic-Data encompasses the traditional Big Data with next wave of Big Data, and namely dynamic data arising from ubiquitous sensing and control in engineered, natural, and societal systems, through multitudes of heterogeneous sensors and controllers instrumenting these systems, and where the opportunities and challenges at these "large-scales" relate not only to the size of the data but the heterogeneity in data, data collection modalities, data fidelities, and timescales, ranging from real-time data to archival data. DDDAS entails the dynamic integration of the traditional high-end/mid-range parallel and distributed computing with the real-time data-acquisition and control. Thus, in tandem with the important new dimension of dynamic data, DDDAS implies an extended view of Big Computing, which includes a new dimension of computing - the collective computing by networked assemblies of multitudes of sensors and controllers. The DDDAS paradigm, driving and exploiting these notions of Large-Scale Dynamic Data and Large-Scale Big Computing, is shaping research directions and engendering transformative impact in a range of natural and engineered systems application areas. Spanning application areas from the nanoscale to the terra-scale and the extra-terra-scale environments, examples of advances and new capabilities that will be presented include: materials analysis and decision support for structural systems; manufacturing systems; cellular, neural, and biorobotic systems; environmental systems; critical infrastructure systems, such as urban and air transportation, energy powergrids, and smart agriculture. In addition the challenges, opportunities, and advances that have been made in the systems software for these Large-Scale-Big-Computing and Large-Scale-Big-Data environments will also be addressed in the talk.
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