The Near Fault Observatory community in Europe: a new resource for faulting and hazard studies

IF 1.2 4区 地球科学 Q3 GEOCHEMISTRY & GEOPHYSICS Annals of Geophysics Pub Date : 2022-07-12 DOI:10.4401/ag-8778
L. Chiaraluce, G. Festa, P. Bernard, A. Caracausi, Ivano Carluccio, J. Clinton, R. Di Stefano, L. Elia, C. Evangelidis, S. Ergintav, Ovidiu Jianu, G. Kaviris, A. Marmureanu, S. Šebela, E. Sokos
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引用次数: 7

Abstract

The Near Fault Observatories (NFOs) community is one of the European Plate Observing System (EPOS, http://www.epos-eu.org) Thematic Communities, today consisting of six research infrastructures that operate in regions characterised by high seismic hazard originating from different tectonic regimes. Earthquakes respond to complex natural systems whose mechanical properties evolve over time. Thus, in order to understand the multi-scale, physical/chemical processes responsible for the faulting that earthquakes occur on, it is required to consider phenomena that intersect different research fields, i.e., to put in place multidisciplinary monitoring. Hence, NFOs are grounded on modern and multidisciplinary infrastructures, collecting near fault high resolution raw data that allows generation of innovative scientific products. The NFOs usually complement regional backbone networks with a higher density distribution of seismic, geodetic, geochemical and other geophysical sensors, at surface and sometimes below grade. These dense and modern networks of multi-parametric sensors are sited at and around active faults, where moderate to large earthquakes have occurred in the past and are expected in the future. They continuously monitor the underlying Earth instability processes over a broad time interval. Data collected at each NFO results in an exceptionally high degree of knowledge of the geometry and parameters characterizing the local geological faults and their deformation pattern. The novel data produced by the NFO community is aggregated in EPOS and is made available to a diverse set of stakeholders through the NFO Federated Specific Data Gateway (FRIDGE). In the broader domain of the Solid Earth sciences, NFOs meet the growing expectations of the learning and communication sectors by hosting a large variety of scientific information about earthquakes as a natural phenomenon and a societal issue. It represents the EPOS concept and objective of aggregating and harmonising the European research infrastructures capabilities to facilitate broader scientific opportunity. The NFOs are at the cutting edge of network monitoring. They conduct multidisciplinary experiments for testing multi-sensor stations, as well as realise robust and ultra-low latency, transmission systems that can routinely accommodate temporary monitoring densification. The effort to continuously upgrade the technological efficiency of monitoring systems positions the NFO at the centre of marketing opportunities for the European enterprises devoted to new sensor technology. The NFOs constitute ideal test beds for generating expertise on data integration, creating tools for the next generation of multidisciplinary research, routine data analysis and data visualization. In particular focus is often on near-real time tools and triggering alarms at different levels are tested and implemented, strengthening the cooperation with the Agencies for risk management. NFOs have developed innovative operational actions such as the Testing Centre for Earthquake Early Warning and Source Characterisation (CREW) and detailed fast ground shaking and damage characterization. Complementing the recent growth of modern laboratory and computational models, the NFOs can provide interdisciplinary observations of comparable high resolution to describe the behaviour of fault slip over a vast range of spatial and temporal scales and aiding to provide more accurate earthquake hazard characterizations.    
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欧洲近断层观测站社区:断层和危害研究的新资源
近断层观测站(nfo)社区是欧洲板块观测系统(EPOS, http://www.epos-eu.org)主题社区之一,目前由六个研究基础设施组成,这些基础设施在不同构造制度下具有高地震危险性的地区运行。地震对复杂的自然系统作出反应,这些系统的机械特性随着时间的推移而演变。因此,为了理解导致地震发生的断层的多尺度物理/化学过程,需要考虑不同研究领域交叉的现象,即实施多学科监测。因此,nfo以现代和多学科基础设施为基础,收集接近故障的高分辨率原始数据,从而可以产生创新的科学产品。NFOs通常在地面和地下以高密度分布的地震、大地测量、地球化学和其他地球物理传感器作为区域主干网络的补充。这些密集的现代多参数传感器网络位于活动断层及其周围,这些断层过去曾发生过中到大地震,预计将来也会发生。它们在很长的时间间隔内持续监测潜在的地球不稳定过程。在每个NFO收集的数据导致对当地地质断层及其变形模式的几何和参数特征的高度了解。NFO社区产生的新数据汇总在EPOS中,并通过NFO联邦特定数据网关(FRIDGE)提供给不同的利益相关者。在更广泛的固体地球科学领域,nfo通过托管关于地震作为自然现象和社会问题的大量科学信息来满足学习和交流部门日益增长的期望。它代表了EPOS的概念和目标,即汇总和协调欧洲研究基础设施能力,以促进更广泛的科学机会。nfo处于网络监控的前沿。他们进行多学科实验,以测试多传感器站,并实现强大和超低延迟的传输系统,可以常规地适应临时监测密度。不断提高监测系统技术效率的努力使NFO处于致力于新传感器技术的欧洲企业营销机会的中心。nfo是生成数据集成专业知识、为下一代多学科研究、常规数据分析和数据可视化创建工具的理想试验台。通常特别侧重于接近实时的工具,并测试和执行不同级别的触发警报,加强与各机构在风险管理方面的合作。nfo开发了创新的业务行动,如地震预警和震源表征测试中心(CREW)和详细的快速地面震动和破坏表征。与现代实验室和计算模型的发展相补充,nfo可以提供跨学科的高分辨率观测,以描述断层滑动在大范围的空间和时间尺度上的行为,并有助于提供更准确的地震危险特征。
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来源期刊
Annals of Geophysics
Annals of Geophysics 地学-地球化学与地球物理
CiteScore
2.40
自引率
0.00%
发文量
38
审稿时长
4-8 weeks
期刊介绍: Annals of Geophysics is an international, peer-reviewed, open-access, online journal. Annals of Geophysics welcomes contributions on primary research on Seismology, Geodesy, Volcanology, Physics and Chemistry of the Earth, Oceanography and Climatology, Geomagnetism and Paleomagnetism, Geodynamics and Tectonophysics, Physics and Chemistry of the Atmosphere. It provides: -Open-access, freely accessible online (authors retain copyright) -Fast publication times -Peer review by expert, practicing researchers -Free of charge publication -Post-publication tools to indicate quality and impact -Worldwide media coverage. Annals of Geophysics is published by Istituto Nazionale di Geofisica e Vulcanologia (INGV), nonprofit public research institution.
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