切萨皮克湾高频雷达记录的极端和非潮汐事件

T. Updyke, L. Atkinson
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引用次数: 2

摘要

切萨皮克湾下游的高频雷达(HFR)地表洋流记录跨越了从2007年4月至今的8年多时间。在此期间,在强风暴和其他重要的非潮汐事件期间,包括与持续大风、大量河流流量和潮流方向完全逆转有关的事件期间,观测到地表环流。潮汐是该地区海流的主要强迫机制;然而,本文关注的是与潮流偏差最大的事件的频率和特征。这些数据记录是在重大命名风暴通过期间仔细检查的,包括艾达(2009年)、厄尔(2010年)、艾琳(2011年)、桑迪(2012年)和亚瑟(2014年)。由于各种原因,风暴事件会破坏观测网络中的数据流。可能造成设备损坏、设备供电中断。当风暴经过该地区时,雷达站的中断和地表电流地图数据质量进行评估。由于与物理强迫的复杂性有关的完全不同的原因,极端事件经常给数值模拟带来挑战。本研究的一个预期好处是,通过描述重要的非潮汐事件获得的见解可以作为分析数值模型性能和提高这些事件的预测能力的未来工作的起点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Extreme and non-tidal events in the Chesapeake Bay high frequency radar surface currents record
The lower Chesapeake Bay high frequency radar (HFR) surface currents record now spans more than eight years from April 2007 to present day. In that time, the surface circulation has been observed during the passage of severe storms and other significant non-tidal events including those associated with periods of sustained high winds, high volume river discharge and complete reversals of tidal current direction. Tides are the dominant forcing mechanism for currents in the area; however, this paper focuses on the frequency and characterization of events representing the largest deviations from tidal flow. The data record is scrutinized during the passage of significant named storms including Ida (2009), Earl (2010), Irene (2011), Sandy (2012) and Arthur (2014). Storm events can disrupt data flow in observational networks for various reasons. Equipment may suffer damage and the power supply to equipment may be interrupted. Radar station outages and surface current map data quality are evaluated when storms passed through the area. For completely different reasons related to the complexity of the physical forcings, extreme events often present challenges for numerical modeling. An anticipated benefit of this study is that insights gained by describing the important non-tidal episodes may serve as a starting point for future work in analyzing the performance of numerical models and improving predictive capabilities for these events.
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