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Natural Hazards - Risk, Exposure, Response, and Resilience最新文献

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Natural Hazards and Nuclear Power Plant Safety 自然灾害与核电站安全
Pub Date : 2019-01-30 DOI: 10.5772/INTECHOPEN.83492
T. Katona
The safety of nuclear power plants with respect of natural hazards can be ensured by adequate characterization of hazards and proven design solutions to cope with natural hazard effects. Design and severe accident management require characterization of very rare event. The events identified for the design basis and for the safety analysis are with annual probability 10 − 4 –10 − 5 and 10 − 7 , respectively. In this chapter, a brief insight into the actual issues of natural hazard safety of nuclear power plants and related scientific challenges is provided. The state of the art of ensuring safety of nuclear power plants with respect to natural hazard is briefly presented with focus on the preparedness to the accident sequences caused by rare natural phenomena. The safety relevance of different hazards and vulnerability of NPPs to different hazards are discussed. Specific attention is made to the non-predictable phenomena with sudden devastating effects like earthquakes and fault ruptures. Post-event conditions that affect the on-site and off-site accident management activities are also considered. The “specific-to-nuclear” aspects of the characterization of hazards are discussed. This is a great challenge for the sciences dealing with hazard characterization. The possibility for ensuring nuclear safety is demonstrated presenting cases when the nuclear power plants survived severe natural phenomena.
对自然灾害进行充分的描述和采用行之有效的设计办法来对付自然灾害的影响,可以确保核电站在自然灾害方面的安全。设计和严重事故管理需要非常罕见事件的特征。为设计基础和安全分析确定的事件的年概率分别为10−4 -10−5和10−7。在本章中,简要介绍了核电厂自然灾害安全的实际问题和相关的科学挑战。简要介绍了核电厂在自然灾害方面的安全保障现状,重点介绍了对罕见自然现象引起的事故序列的防范。讨论了不同危害的安全相关性和核电站对不同危害的脆弱性。特别关注具有突然破坏性影响的不可预测现象,如地震和断层破裂。还考虑了影响现场和非现场事故管理活动的事件后条件。讨论了危险表征的“具体到核”方面。这对处理危险特征的科学来说是一个巨大的挑战。通过核电站在严重的自然现象中幸存下来的案例,证明了确保核安全的可能性。
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引用次数: 0
Assessing Seismic Hazard in Chile Using Deep Neural Networks 利用深度神经网络评估智利地震危险性
Pub Date : 2019-01-09 DOI: 10.5772/INTECHOPEN.83403
F. Plaza, Rodrigo F. Salas, O. Nicolis
Earthquakes represent one of the most destructive yet unpredictable natural disasters around the world, with a massive physical, psychological, and economi-cal impact in the population. Earthquake events are, in some cases, explained by some empirical laws such as Omori’s law, Bath’s law, and Gutenberg-Richter’s law. However, there is much to be studied yet; due to the high complexity associated with the process, nonlinear correlations among earthquake occurrences and also their occurrence depend on a multitude of variables that in most cases are yet unidentified. Therefore, having a better understanding on occurrence of each seismic event, and estimating the seismic hazard risk, would represent an invaluable tool for improving earthquake prediction. In that sense, this work consists in the implementation of a machine learning approach for assessing the earthquake risk in Chile, using information from 2012 to 2018. The results show a good performance of the deep neural network models for predicting future earthquake events.
地震是世界上最具破坏性和不可预测的自然灾害之一,对人们的身体、心理和经济造成巨大影响。在某些情况下,地震事件可以用一些经验法则来解释,如Omori定律、Bath定律和Gutenberg-Richter定律。然而,还有很多东西需要研究;由于这一过程的高度复杂性,地震发生及其发生之间的非线性相关性取决于许多变量,而这些变量在大多数情况下尚未确定。因此,更好地了解每个地震事件的发生,并估计地震灾害风险,将是改进地震预测的宝贵工具。从这个意义上说,这项工作包括使用2012年至2018年的信息实施机器学习方法来评估智利的地震风险。结果表明,深度神经网络模型对未来地震事件有较好的预测效果。
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引用次数: 9
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Natural Hazards - Risk, Exposure, Response, and Resilience
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