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在尼日利亚的一个城郊流域中,对土地利用影响、河岸植被和岩性变化对河岸稳定性的综合评估。

An integrated assessment of land use impact, riparian vegetation and lithologic variation on streambank stability in a peri-urban watershed (Nigeria).

机构信息

Department of Earth Sciences, Anchor University Lagos, 1 - 4 Ayobo Road, Lagos, Nigeria.

Civil, Infrastructure and Environment Research Cluster, Department of Civil Engineering, Covenant University, Ota, Ogun State, Nigeria.

出版信息

Sci Rep. 2022 Jun 29;12(1):10989. doi: 10.1038/s41598-022-15008-w.

DOI:10.1038/s41598-022-15008-w
PMID:35768622
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9243088/
Abstract

Bank erosion is an important source of sediment and phosphorus to inland fluvial systems and is generally responsible for more than half of the total watershed sediment export. Numerous studies have quantified bank erosion and the spatio-temporal variation of sediment flux in different watersheds. However, there is sparse research to date on the linkages between bank erosion/accretion and sediment export under different land uses, especially in rapidly evolving peri-urban watersheds. This research, therefore, integrated remote sensing techniques and repeated field survey of erosion pin plots to quantify bank erosion and sediment flux in the 80 km Nkisi River watershed (NRW), southeast Nigeria, over a three-year period. The impact of land use change on streambank erosion was evaluated by utilising remotely sensed Landsat datasets of 2003, 2010, 2016 and 2019. Geotechnical tests were used to characterise the lithologic properties of the banks, while the Bank Stability and Toe Erosion Model (BSTEM) was used to determine the stability of the banks under various hydrological conditions and mechanical properties of the riparian vegetation. Mean bank recession rates increased from 10.7 cm during the 2017-2018 monitoring period to 17.5 cm for the 2019-2020 monitoring period. The percentage of total watershed export ascribed to bank erosion in the three stream reaches varied from 6.6 to 44.9%. The high rates of bank erosion and accretion within the NRW were attributed to rapid changes in land use, which evolved from grassland and woodland to cropland, built-up and bare land. The BSTEM accurately predicted the high erosion rates of the streambanks and showed that riparian vegetation has a mechanical effect on bank stability. However, the mechanical effect diminishes as the depth to water table rises during high streamflow events.

摘要

河岸侵蚀是内陆河流系统泥沙和磷的重要来源,通常占流域总泥沙输出量的一半以上。许多研究已经量化了不同流域的河岸侵蚀和泥沙通量的时空变化。然而,迄今为止,关于不同土地利用下河岸侵蚀/堆积与泥沙输出之间的联系的研究很少,特别是在快速发展的城市周边流域。因此,本研究综合利用遥感技术和侵蚀钉图的重复野外调查,量化了尼日利亚东南部 80 公里长的 Nkisi 河流域(NRW)三年内的河岸侵蚀和泥沙通量。利用 2003 年、2010 年、2016 年和 2019 年的 Landsat 遥感数据集评估了土地利用变化对河岸侵蚀的影响。岩土测试用于描述河岸的岩性特性,而河岸稳定性和趾部侵蚀模型(BSTEM)用于确定在各种水文条件和河岸植被力学特性下河岸的稳定性。2017-2018 监测期间,平均河岸退缩率从 10.7cm 增加到 2019-2020 监测期间的 17.5cm。三个溪流段中归因于河岸侵蚀的流域总出口百分比从 6.6%到 44.9%不等。NRW 内河岸侵蚀和堆积的高速率归因于土地利用的快速变化,从草地和林地演变为耕地、建成区和裸地。BSTEM 准确预测了河岸的高侵蚀率,并表明河岸植被对河岸稳定性具有机械作用。然而,随着高流量事件中地下水位的升高,机械作用会减弱。

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