Debunking common myths in coastal circulation modeling

IF 3.1 3区 地球科学 Q2 METEOROLOGY & ATMOSPHERIC SCIENCES Ocean Modelling Pub Date : 2024-06-26 DOI:10.1016/j.ocemod.2024.102401
Y. Joseph Zhang , Joshua Anderson , Kyungmin Park , Chin H. Wu , Spenser Wipperfurth , Eric Anderson , Shachak Pe'eri , Dmitry Beletsky , Daniel Titze , Emanuele Di Lorenzo , Saeed Moghimi , Gregory Seroka , Edward Myers , Ayumi Fujisaki-Manome , John Kelley
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Abstract

Despite tremendous progress in algorithm development, computational efficiency and transition into operations over the past two decades, coastal modeling still lacks scientific rigor due to proliferation of many ‘gray’ areas related to various modeling choices made by modelers. In this paper, we propose some guiding principles for the modeling community to improve performance, and we also debunk commonly held myths that make the coastal modeling lack rigor. Using our own experience in developing seamless cross-scale unstructured-grid based models for the past two decades, we describe in unprecedented detail the end-to-end modeling process (i.e., from digital elevation models (DEMs) to mesh generation to post analysis), and demonstrate that defensible modeling is within reach for any end user by following three guiding principles: (1) Bathymetry is a first order forcing in coastal domains and thus should be respected in all aspects of modeling; (2) Oceanographic processes are driven across multiple spatial scales and so models should enable appropriate resolution as needed; and (3) Model assessment should focus on physical processes. Through qualitative and quantitative model assessments, we demonstrate the fundamental role played by bathymetry/topography as embedded in DEMs in making the results defensible, which is unfortunately glossed over in many modeling studies. Focusing on process-based assessment simplifies the calibration process. A major conclusion of this work is that model developers and operators should maximize the scientific rigor for in silico oceanography by avoiding some common pitfalls that rely on error compensation at the expense of representation of physical system processes. We present some best practice procedures for defensive and trustworthy numerical modeling.

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揭开沿岸环流模式的神秘面纱
尽管过去 20 年在算法开发、计算效率和投入运行方面取得了巨大进步,但沿岸模 拟仍然缺乏科学的严谨性,这是因为建模人员在建模过程中的各种选择造成了许多 "灰 色 "区域的扩散。在本文中,我们将提出一些指导原则,供建模界参考,以提高建模的性能。我们利用自己在过去 20 年中开发无缝跨尺度非结构网格模型的经验,前所未有地详细介绍了端到端的建模过程(即从数字高程模型(DEM)到网格生成,再到后期分析),并证明只要遵循三个指导原则,任何最终用户都可以进行可靠的建模:(1)水深是沿岸领域的第一阶强迫因素,因此在建模的所有方面都应得到尊重;(2)海洋 学过程是由多种空间尺度驱动的,因此模式应根据需要实现适当的分辨率;(3)模式评估应 侧重于物理过程。通过对模型进行定性和定量评估,我们证明了包含在 DEM 中的水深/地形在使结果具有可辩护性方面所发挥的根本作用,但遗憾的是,许多建模研究都忽略了这一点。基于过程的评估简化了校准过程。这项工作的一个主要结论是,模型开发人员和操作人员应避免依赖误差补偿而牺牲物理系统过程表征的一些常见误区,从而最大限度地提高硅学海洋学的科学严谨性。我们提出了一些防卫性和可信赖的数值建模最佳实践程序。
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来源期刊
Ocean Modelling
Ocean Modelling 地学-海洋学
CiteScore
5.50
自引率
9.40%
发文量
86
审稿时长
19.6 weeks
期刊介绍: The main objective of Ocean Modelling is to provide rapid communication between those interested in ocean modelling, whether through direct observation, or through analytical, numerical or laboratory models, and including interactions between physical and biogeochemical or biological phenomena. Because of the intimate links between ocean and atmosphere, involvement of scientists interested in influences of either medium on the other is welcome. The journal has a wide scope and includes ocean-atmosphere interaction in various forms as well as pure ocean results. In addition to primary peer-reviewed papers, the journal provides review papers, preliminary communications, and discussions.
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