观测到的水文过程的全球格局

IF 24.1
Hilary McMillan, Ryoko Araki, Lauren Bolotin, Dong-Hyun Kim, Gemma Coxon, Martyn Clark, Jan Seibert
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引用次数: 0

摘要

为了管理水资源和预测河流流量,水文学家试图了解水是如何从降水中通过流域进入河道的。然而,我们缺乏关于全球水文过程的空间分布和物理控制的基本信息。这些信息需要为大域模型仿真提供理论支持。在这里,为了解决这个问题,我们提出了一个包含400个研究流域的全球可搜索数据库,其中包含已发表的主要水文流动路径的描述。这种知识综合方法利用了数十年的资助、实地考察和当地专业知识。我们使用该数据库来检验关于气候、生物群落和地貌在控制水文过程中的作用的长期假设。我们表明,干旱预测水流通道的深度,地形和生物群落预测横向水流通道的流行。这些新的数据和搜索能力支持有效的假设检验,以调查景观组织与水文功能相关的紧急模式。本研究提供了一个包含400个研究流域的全球可搜索数据库,其中包含已发表的主要水文流动路径描述,支持有效的假设检验,以调查景观组织与水文功能相关的紧急模式。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Global patterns in observed hydrologic processes

Global patterns in observed hydrologic processes
To manage water resources and forecast river flows, hydrologists seek to understand how water moves from precipitation, through watersheds, into river channels. However, we lack fundamental information on the spatial distribution and physical controls on global hydrologic processes. This information is needed to provide theoretical support for large-domain model simulations. Here, to address this issue, we present a global, searchable database of 400 research watersheds with published descriptions of dominant hydrologic flow pathways. This knowledge synthesis approach leverages decades of grant funding, fieldwork effort and local expertise. We use the database to test longstanding hypotheses about the roles of climate, biomes and landforms in controlling hydrologic processes. We show that aridity predicts the depth of water flow pathways and that terrain and biomes predict the prevalence of lateral flow pathways. These new data and search capabilities support efficient hypothesis testing to investigate emergent patterns that relate landscape organization to hydrologic function. This study presents a global, searchable database of 400 research watersheds with published descriptions of dominant hydrologic flow pathways, supporting efficient hypothesis testing to investigate emergent patterns that relate landscape organization to hydrologic function.
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