EARTH-SCIENCE REVIEWS地球科学评论

EARTH-SCIENCE REVIEWS(英文缩写 EARTH-SCI REV),ISSN 0012-8252,eISSN 1872-6828,中文译名:地球科学评论 是一本学术期刊。本页汇总该期刊的最新影响因子、分区信息以及最新收录于 PubMed 的文献,帮助您快速了解期刊全貌。

2026 年数据 · 影响因子
11.300
JCR 分区
Q1
CAS 分区
B1
近一年发文量
0
本站 PubMed 收录统计

发文量统计区间:2025-11-01 至 2026-10-31,按本站收录文献的发表日期统计。

ISSN: 0012-8252 · eISSN: 1872-6828 · 缩写: EARTH-SCI REV ·中文: 地球科学评论

期刊介绍

选择期刊介绍栏目

期刊简介

Earth-Science Reviews 是地球科学领域国际知名的综合性综述期刊,致力于发表对地球系统各分支具有广泛意义的批判性综述与前沿评论。内容覆盖地质学、地球化学、地球物理学、行星科学、气候与环境演变等方向,强调跨学科整合与全球性视角。读者群主要为高校与科研机构的研究人员、高年级研究生及需要把握学科整体进展的从业者。

研究方向

主要刊载地球科学各领域的系统性综述、方法学评述与概念性论文,主题涉及构造地质、沉积学、矿物岩石、古生物与地层、地球动力学、地表过程、全球变化及行星对比研究等。论文类型以邀请或投稿的综述为主,也包含短评、讨论与回复,鼓励对争议问题提出整合性认识。

期刊特色

研究取向偏重宏观综合与理论提升,而非单点数据报道,论文通常篇幅较长、文献覆盖广、图表信息密集,对学科发展脉络和未来方向有明确判断。适合已有一定研究积累、希望系统梳理某一主题或寻求跨领域启发的科研人员与研究生阅读和投稿。

投稿难度

投稿难度较高,期刊对选题的学科广度、文献整合深度和观点原创性要求严格,仅靠局部案例或常规数据积累难以满足。建议在充分掌握领域全貌的基础上,明确综述要解决的核心科学问题,突出批判性分析与前瞻判断,并预留较长的修改与打磨周期。

历年影响因子趋势

JCR 数据年份影响因子JCR 分区
202112.038Q1
202212.100Q1
202310.800Q1
202410.000Q1
202511.300Q1

EARTH-SCIENCE REVIEWS 最新收录文献

  1. JCR分区: Q1 CAS分区: B1 影响因子: 11.3

    1. Headwater streams and inland wetlands: Status and advancements of geospatial datasets and maps across the United States.

    1. 源头溪流与内陆湿地:美国全境地空间数据集与地图的现状及进展
    作者:
    Jay R Christensen, Heather E Golden, Laurie C Alexander, Brian R Pickard, Ken M Fritz, Charles R Lane, Marc H Weber, Rose M Kwok, Madeline N Keefer
    日期:
    2022-12

    Headwater streams and inland wetlands provide essential functions that support healthy watersheds and downstream waters. However, scientists and aquatic resource managers lack a comprehensive synthesis of national and state stream and wetland geospatial datasets and emerging technologies that can further improve these data. We conducted a review of existing United States (US) federal and state stream and wetland geospatial datasets, focusing on their spatial extent, permanence classifications, and current limitations. We also examined recent peer-reviewed literature for emerging methods that can potentially improve the estimation, representation, and integration of stream and wetland datasets. We found that federal and state datasets rely heavily on the US Geological Survey's National Hydrography Dataset for stream extent and duration information. Only eleven states (22%) had additional stream extent information and seven states (14%) provided additional duration information. Likewise, federal and state wetland datasets primarily use the US Fish and Wildlife Service's National Wetlands Inventory (NWI) Geospatial Dataset, with only two states using non-NWI datasets. Our synthesis revealed that LiDAR-based technologies hold promise for advancing stream and wetland mapping at limited spatial extents. While machine learning techniques may help to scale-up these LiDAR-derived estimates, challenges related to preprocessing and data workflows remain. High-resolution commercial imagery, supported by public imagery and cloud computing, may further aid characterization of the spatial and temporal dynamics of streams and wetlands, especially using multi-platform and multi-temporal machine learning approaches. Models integrating both stream and wetland dynamics are limited, and field-based efforts must remain a key component in developing improved headwater stream and wetland datasets. Continued financial and partnership support of existing databases is also needed to enhance mapping and inform water resources research and policy decisions.

  2. JCR分区: Q1 CAS分区: B1 影响因子: 11.3

    2. Deposits, flow characteristics, and landscape change resulting from the September 2009 South Pacific tsunami in the Samoan islands.

    2. 2009年9月南太平洋海啸在萨摩亚群岛造成的沉积、流动特征及景观变化
    作者:
    Bruce M Richmond, Mark Buckley, Samuel Etienne, Catherine Chagué-Goff, Kate Clark, James Goff, Dale Dominey-Howes, Luke Strotz
    日期:
    2011-07

    The September 29th 2009 tsunami caused widespread coastal modification within the islands of Samoa and northern Tonga in the South Pacific. Preliminary measurements indicate maximum runup values of around 17 m (Okal et al., 2010) and shore-normal inundation distances of up to ~ 620 m (Jaffe et al., 2010). Geological field reconnaissance studies were conducted as part of an UNESCO-IOC International Tsunami Survey Team survey within three weeks of the event in order to document the erosion, transport, and deposition of sediment by the tsunami. Data collected included: a) general morphology and geological characteristics of the coast, b) evidence of tsunami flow (inundation, flow depth and direction, wave height and runup), c) surficial and subsurface sediment samples including deposit thickness and extent, d) topographic mapping, and e) boulder size and location measurements. Four main types of sedimentary deposits were identified: a) gravel fields consisting mostly of isolated cobbles and boulders, b) sand sheets from a few to ~ 25 cm thick, c) piles of organic (mostly vegetation) and man-made material forming debris ramparts, and d) surface mud deposits that settled from suspension from standing water in the tsunami aftermath. Tsunami deposits within the reef system were not widespread, however, surficial changes to the reefs were observed.

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