REVIEW: Meteorological Research Enabled by Rapid-Scan Radar Technology

IF 2.8 3区 地球科学 Q3 METEOROLOGY & ATMOSPHERIC SCIENCES
David J. Bodine, Casey B. Griffin
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引用次数: 0

Abstract

Abstract The scientific community has long acknowledged the importance of high-temporal resolution radar observations to advance science research and improve high-impact weather prediction. Development of innovative rapid-scan radar technologies over the past two decades has enabled radar volume scans of 10–60 s, compared to 3–5 min with traditional parabolic dish research radars and the WSR-88D radar network. This review examines the impact of rapid-scan radar technology, defined as radars collecting volume scans in 1 min or less, on atmospheric science research spanning different subdisciplines and evaluates the strengths and weaknesses of the use of rapid-scan radars. In particular, a significant body of literature has accumulated for tornado and severe thunderstorm research and forecasting applications, in addition to a growing number of studies of convection. Convection research has benefited substantially from more synchronous vertical views, but could benefit more substantially by leveraging multi-Doppler wind retrievals and complementary in-situ and remote sensors. In addition, several years of forecast evaluation studies are synthesized from radar testbed experiments, and the benefits of assimilating rapid-scan radar observations are analyzed. Although the current body of literature reflects the considerable utility of rapid-scan radars to science research, a weakness is that limited advancements in understanding of the physical mechanisms behind observed features have been enabled. There is considerable opportunity to bridge the gap in physical understanding with the current technology using coordinated efforts to include rapid-scan radars in field campaigns and expanding the breadth of meteorological phenomena studied.
综述:快速扫描雷达技术使气象研究成为可能
科学界早就认识到高时间分辨率雷达观测对推进科学研究和改进高影响天气预报的重要性。在过去的二十年中,创新的快速扫描雷达技术的发展使雷达体积扫描时间达到了10-60秒,而传统的抛物面天线研究雷达和WSR-88D雷达网络则需要3-5分钟。本文考察了快速扫描雷达技术(定义为在1分钟或更短时间内收集体积扫描的雷达)对跨越不同分支学科的大气科学研究的影响,并评估了使用快速扫描雷达的优势和劣势。特别是对于龙卷风和强雷暴的研究和预报应用已经积累了大量的文献,对流的研究也越来越多。对流研究从更同步的垂直视图中受益匪浅,但利用多多普勒风检索和互补的原位和远程传感器可以获得更大的收益。此外,本文还综合了近年来雷达试验台试验的预报评价研究成果,分析了同化快速扫描雷达观测资料的效益。虽然目前的文献反映了快速扫描雷达在科学研究中的相当大的效用,但一个弱点是,在理解观察到的特征背后的物理机制方面取得了有限的进展。利用协调一致的努力,将快速扫描雷达纳入野外活动,并扩大所研究的气象现象的广度,利用现有技术弥合物理认识方面的差距是相当有机会的。
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来源期刊
Monthly Weather Review
Monthly Weather Review 地学-气象与大气科学
CiteScore
6.40
自引率
12.50%
发文量
186
审稿时长
3-6 weeks
期刊介绍: Monthly Weather Review (MWR) (ISSN: 0027-0644; eISSN: 1520-0493) publishes research relevant to the analysis and prediction of observed atmospheric circulations and physics, including technique development, data assimilation, model validation, and relevant case studies. This research includes numerical and data assimilation techniques that apply to the atmosphere and/or ocean environments. MWR also addresses phenomena having seasonal and subseasonal time scales.
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