Ngasinan 深滑坡区超厚土壤材料沉积中的伪滑动面

Anastasia Neni Candra Purnamasari, J. Sartohadi, Eddy Hartantyo
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引用次数: 0

摘要

研究的重点是分析一个地区内发生的大小不一的山体滑坡。这些滑坡发生在厚度超过 10 米的持续松散、深厚的火山沉积物(被称为土壤材料)中。我们的目标是评估在这种土壤材料中引发这些滑坡的潜在滑动面。为此,采用了地球物理和土壤科学相结合的方法。地球物理测量方法,特别是电阻率参数,通过地电方法确定土壤材料层内的区别。此外,阳离子交换容量(CEC)和淤积难易度等土壤科学因素也用于评估具有假滑动面的土层。研究结果表明,不同材料层的电阻率值、CEC 和含水量各不相同。N1 层位于 5 米深处,颜色为 5Y 8/1(偏向白色/浅色),电阻率为 8.7 Ωm,CEC 为 54 meq/100g,淤泥性较高。N1 层在电阻率、CEC 和含水量方面的独特值证明,该层是造成初始滑坡或滑动面的潜在原因,是潜在滑坡的关注区域。这些发现证实,这些因素的差异可作为潜在滑坡易发区的早期识别手段。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Pseudo Sliding Plane in Super-Thick Soil Materials Deposit at Ngasinan Deep Landslide Area
The research focuses on analyzing landslides within an area abundant in varying sizes of these occurrences. These landslides happen in consistently loose, deep volcanic sediment, referred to as soil material, over 10 meters thick. The goal is to assess potential sliding plane triggering these landslides within this soil material. To achieve this, a blend of geophysical and soil science methodologies is employed. Geophysical measures, specifically resistivity parameters, discern distinctions within the layers of soil material, determined through geoelectric methods. Additionally, soil science factors like Cation Exchange Capacity (CEC) and silting ease are used to evaluate the layers with pseudo-sliding plane. Findings demonstrate varied resistivity values, CEC, and water content across the different material layers. The N1 layer, situated at a 5-meter depth, exhibiting characteristics of 5Y 8/1 color (leaning toward white/light), shows a resistivity of 8.7 Ωm, a CEC of 54 meq/100g, and high muddiability. Identified as a potential cause of initial landslides or sliding planes, the N1 layer's distinctive values in resistivity, CEC, and water content validate it as an area of concern for potential landslides. These findings confirm that differences in these factors can serve as an early identification for potential landslide-prone areas.  
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