Identification of Slope Stability Analysis

Ika Juliantina, Yulindasari Sutejo, Ratna Dewi, Bimo Brata Adhityia, Reffanda Kurniawan Rustam

Abstract


Landslide was natural events that most often occur in Indonesia. South Sumatra Province has a lot of areas susceptible to landslide risk. The aim of this study is to the identification of slope stability analysis. A adjustment in the constancy of a slope can be caused by several factors: geological conditions, high rainfall, and the topography. The research location in Muara Enim regency (Cases: SP. Sugihwaras-Muara Enim and SP. Sugihwaras-Baturaja). The results of this research indicated Muara Enim-SP.Sugihwaras-Baturaja was the typology defined in this type of zone C because the area was included in the areas with slope 0 % to 20 %. The zone classification explained some of the caused landslides were natural factors, type of soil, and human activities. Natural factors such as heavy rainfall were 79-82 mm/month. Muara Enim regency conditions were a category of landslide because it was an area that had breccia rock types that were not compact and were weathered and bentonite clay that readily absorbs water. Based on the results of Slope/W analysis, safety factor (SF) in the case of SP. Sugihwaras-Muara Enim was 1.104 and the case of SP. Sugihwaras-Baturaja was 1.186. The value of SF was included in the criteria landslides where the SF less than 1.250.

Keywords


slope stability; landslide; slope/w; safety factor (SF)

Full Text:

PDF

References


Fredlund, D., G., Slope stability hazard management systems. Journal of Zhejiang University SCIENCE A.ISSN 1673-565, 2007: 8(11):1695-1711.

Gofar, N. and K.A. Kassim. Introduction to geotechnical engineering-Part I Chapter 5: Slope Stability. Pearson Education, revised edition, 2007.

Das, B., M., Princle of geotechnical engineering. Cengange Learning. Stamford, 2014.

Regulation of the minister of public works No.22/PRT/M/2007. Spatial planning guidelines for landslide prone region, 2007.

Bowles, Joseph E. Physical and geotechnical properties of soil. McGraw-Hill. 2010.

Predrag Miscevic, P., and Vlastelica., G. Impact of weathering on slope stability in soft rock mass. Journal of Rock Mechanics and Geotechnical Engineering 6 (2014) 240-250.

Eurocode 7: Geotechnical Design-Part 1: General Rules ENV 1997-1, 1997.

Geo-Slope International Ltd. SLOPE/W User’s guide for Slope Stability Analysis. Version 5, Calgary, Alta., Canada, 2007.

Sutejo, Y., and Gofar, N., Effect of area development on the stability of cut slopes. Procedia Engineering, Elsevier Ltd., 2015:(125) 331-337.

Chowdhury, Robin and Flentje, Phil. Mitigation of landslide impacts, strategies and challenges for the 21st century. Chowdhury and Flentje Int. J. Lsld. Env, 2014: 2(1), 1-13.

Craigh, R., F., Craig’s soil mechanics, Taylor and Francis e-Library, 2012

Santosh, N., Borole, Sagar, M., and Satish, K., Slope stability analysis with GEO5 Software for Malin landslide in Pune (Maharashtra), Global Journal of Engineering Science and Researches, 2016:9-16.

Manimaran, G., et.al., Characterization and disaster management of landslide in the Nilgiris mountainous terrain of Tamil Nadu, India, International Journal of Geomatics and Geosciences, 2012: 3 (1), 1-12.

Mohamed, T., Kasa, A., and Taha, R., Fuzzy logic system for slope stability prediction, International Journal on Advanced Science Engineering Information Technology (IJASEIT), ISSN: 2088-5334, 2012 : 2, (2) 38-52.




DOI: http://dx.doi.org/10.18517/ijaseit.8.3.2685

Refbacks

  • There are currently no refbacks.



Published by INSIGHT - Indonesian Society for Knowledge and Human Development