Vulnerability of potential soil erosion and risk assessment at hilly farms using InSAR technology

Nuraddeen Mukhtar  Nasidi; Aimrum Wayayok; Ahmad Fikri Abdullah; Muhamad Saufi  Mohd Kassim

N. M. Nasidi Department of Biological and Agricultural Engineering, Faculty of Engineering, Universiti Putra Malaysia. 43300 Selangor, Malaysia
A. Wayayok Department of Biological and Agricultural Engineering, Faculty of Engineering, Universiti Putra Malaysia. 43300 Selangor, Malaysia
A. F. Abdullah Department of Biological and Agricultural Engineering, Faculty of Engineering, Universiti Putra Malaysia. 43300 Selangor, Malaysia
M. S. M. Kassim SMART Farming Technology Research Center, Faculty of Engineering, Universiti Putra Malaysia. 43300 Selangor, Malaysia

Keywords: Erosivity, Soil Erodibility, GIS, USLE, Cameron Highlands

Abstract

Soil erosion is a serious environmental challenge which is persistently diminishing the available land resource in many places around the world, particularly the highlands areas. The traditional approach of estimating the magnitude of erosion is tedious, costly and considerably time consuming. This study is aimed at assessing the risk level associated with soil erosion at hilly areas of Cameron Highlands through Interferometric Synthetic Aperture Radar (InSAR). The digital elevation model with 5 m resolution was utilized to generate the slope map for the highlands. Soil erosion rates was estimated using universal soil loss equation, while information about land use and cover were sourced from relevant government agencies. The analysis shows that, there was about 217.5 km² (30.5%) of highlands fall under severely steep zone with slope ≥ 45^o. Moreover, erosion risk assessment indicated that; 66.3%, 11.4%, 11.7% and 10.8% of the severe sloppy lands are classified as very low to high susceptible to soil erosion respectively. In general, the risk of soil erosion is relatively low and could be attributed to large vegetation coverage despite steep slopes. However, there is need to deploy a control measures to reduce soil disturbance activities on highlands with extremely steep slope as a proactive measures to minimize the effect of potential soil erosion

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References

González-Morales, S.B., Mayer, A. & Ramírez-Marcial, N. (2018). Assessment of soil erosion vulnerability in the heavily populated and ecologically fragile communities in Motozintla de Mendoza, Chiapas, Mexico. Solid Earth. 9, 3, 745–757.

Pandey, A., Himanshu, S.K., Mishra, S.K. & Singh, V.P. (2016). Physically based soil erosion and sediment yield models revisited. CATENA. 147, 595–620.

Neal, M.R., Nearing, M.A., Vining, R.C., Southworth, J. & Pfeifer, R.A. (2005). Climate change impacts on soil erosion in Midwest United States with changes in crop management. Catena. 61, 2-3 SPEC. ISS., 165–184.

Ghani, A.A., Lo, C.H. & Chung, S.L. (2013). Basaltic dykes of the Eastern Belt of Peninsular Malaysia: The effects of the difference in crustal thickness of Sibumasu and Indochina. Journal of Asian Earth Sciences. 77, 127–139.

Pradhan, B., Chaudhari, A., Adinarayana, J. & Buchroithner, M.F. (2012). Soil erosion assessment and its correlation with landslide events using remote sensing data and GIS: A case study at Penang Island, Malaysia. Environmental Monitoring and Assessment. 184, 2, 715–727.

Sholagberu, A.T., Ul Mustafa, M.R., Wan Yusof, K. & Ahmad, M.H. (2016). Evaluation of rainfall-runoff erosivity factor for cameron highlands, Pahang, Malaysia. Journal of Ecological Engineering. 17, 3, 1–8.

Yoder, K.M. and D. c. (1997). Predicting Soil Reosion by Water: A Guide to conservation planning with Revised Universal Soil Loss Equation (RUSLE). United stated deparment of Agriculture, Agriculture Handbbooh 703.

Liu, Y.H., Li, D.H., Chen, W., Lin, B.S., Seeboonruang, U. & Tsai, F. (2018). Soil erosion modeling and comparison using slope units and grid cells in Shihmen reservoir watershed in Northern Taiwan. Water (Switzerland). 10, 10.

Abdullah, A.F., Amiri, E., Daneshian, J., Teh, C.B.S., Wayayok, A., Massah Bavani, A. & Ahmadzadeh Araji, H. (2018). Impacts of climate change on soybean production under different treatments of field experiments considering the uncertainty of general circulation models. Agricultural Water Management. 205, May, 63–71.

Azim, F., Shakir, A.S., Habib-ur-Rehman & Kanwal, A. (2016). Impact of climate change on sediment yield for Naran watershed, Pakistan. International Journal of Sediment Research. 31, 3, 212–219.

Serdeczny, O., Adams, S., Baarsch, F., Coumou, D., Robinson, A., Hare, W., Schaeffer, M., Perrette, M. & Reinhardt, J. (2017). Climate change impacts in Sub-Saharan Africa: from physical changes to their social repercussions. Regional Environmental Change. 17, 6, 1585–1600.

Razali, A., Syed Ismail, S.N., Awang, S., Praveena, S.M. & Zainal Abidin, E. (2018). Land use change in highland area and its impact on river water quality: a review of case studies in Malaysia. Ecological Processes. 7, 1, 19.

Mispan, M.R., Haron, S.H., Ismail, B.S., Abd Rahman, N.F., Khalid, K. & Abdul Rasid, M.Z. (2015). The Use of Pesticides in Agriculture Area, Cameron Highlands. International Journal of Scientific Progress and Research. 15, 1, 19–22.

Arrow, B., Lifton, C., Han, C. & an, T. (2005). Sustainable Development in the Cameron Highlands, Malaysia of streams is vulnerable to eroded silt, agricultural pollution and sewage. Journal of Environmental Management. 6, 41–57.

Van der Knijff, J.M., Jones, R.J.A. & Montanarella, L. (2000). Soil Erosion Risk Assessment in Europe. EUR 19044 EN. Luxembourg: Office for Official Publications of the European Communities. EUR 19044, EN, 32 pp.

Muhd. Berzani Gasim, Mazlin Mokhtar, Salmijah Surif, Mohd. Ekhwan Toriman, S.A.R. and P.I.L. (2012). Analysis of Thirty Years Recurrent Floods of the Pahang River, Malaysia. Asian Journal of Earth Sciences. 5, 1, 25–35.

Oliver, T.H., Gillings, S., Pearce-Higgins, J.W., Brereton, T., Crick, H.Q.P., Duffield, S.J., Morecroft, M.D. & Roy, D.B. (2017). Large extents of intensive land use limit community reorganization during climate warming. Global Change Biology. 23, 6, 2272–2283.

Zakaria, N.A., Ghani, A.A. & Chang, C.K. eds. (2012). Application of Green Infrastructures for Solving Sustainable Urban Stormwater Management Challenges. Department of Irrigation and Drainage (DID) Malaysia.

Fagbohun, B.J., Anifowose, A.Y.B., Odeyemi, C., Aladejana, O.O. & Aladeboyeje, A.I. (2016). GIS-based estimation of soil erosion rates and identification of critical areas in Anambra sub-basin, Nigeria. Modeling Earth Systems and Environment. 2, 3, 159.

Nicu, I.C. & Asăndulesei, A. (2018). GIS-based evaluation of diagnostic areas in landslide susceptibility analysis of Bahluieț River Basin (Moldavian Plateau, NE Romania). Are Neolithic sites in danger? Geomorphology. 314, 27–41.

Teh, S.H. (2011). Soil Erosion Modeling Using RUSLE and GIS on Cameron Highlands, Malaysia for Hydropower Development. RES | the School for Renewable Energy Science. 6–8.

Madsen, S. N., & Zebker, H. A. (1998). Imaging Radar Interferometry. In Manual of Remote Sensing, Vol. 2, Principles and Applications of Imaging Radar, Chapter 6, pp. 349–380. John Wiley & Sons

Basher, L., Betts, H., Lynn, I., Marden, M., McNeill, S., Page, M. & Rosser, B. (2018). A preliminary assessment of the impact of landslide, earthflow, and gully erosion on soil carbon stocks in New Zealand. Geomorphology. 307, 93–106.

Wayayok, Aimrun, Nasidi NM, A.F.A. (2018). Erosion and Sediment Control guidelines for Agricultural Activities in Hilly Areas: Case Study of Cameron Highlands.

Wischmeier, W., & Smith, D. (1978). Predicting Rainfall Erosion Losses- A Guide to Consrvation Planning. U.S. Department of Agriculture Handbook. U S. Department of Agriculture.

Smith, D., & Whitt, D. (1947). Estimating Soil Losses from Field Ares of Claypan Soil. Soil Science Society of America Proceedings, (1947), 485–490.

Duan, X., Gu, Z., Li, Y. & Xu, H. (2016). The spatiotemporal patterns of rainfall erosivity in Yunnan Province, southwest China : An analysis of empirical orthogonal functions. Global and Planetary Change. 144, 82–93.

Fenta, A.A., Yasuda, H., Shimizu, K., Haregeweyn, N., Kawai, T., Sultan, D., Ebabu, K. & Belay, A.S. (2017). Spatial distribution and temporal trends of rainfall and erosivity in the Eastern Africa region. Hydrological Processes. 31, 25, 4555–4567.

Qin, W., Guo, Q., Zuo, C., Shan, Z., Ma, L. & Sun, G. (2016). Spatial distribution and temporal trends of rainfall erosivity in mainland China for 1951–2010. Catena. 147, 177–186.

Bols, P. (1978). The Iso-erodent Map of Java and Madura. Belgian Technical Assistance Project ATA 105, Soil Research Institute, Bogor. Choy, Indonesia.

Ostovari, Y., Ghorbani-Dashtaki, S., Bahrami, H.A., Naderi, M., Dematte, J.A.M. & Kerry, R. (2016). Modification of the USLE K factor for soil erodibility assessment on calcareous soils in Iran. Geomorphology. 273, 385–395.

Yang, F. & Lu, C. (2015). Spatiotemporal variation and trends in rainfall erosivity in China’s dryland region during 1961-2012. Catena. 133, 362–372.

Amanambu, A. C.; Li, L.; Egbinola, C. N.; Obarein, O. A.; Mupenzi, C.; Chen, D., Amanambu, A.C., Li, L., Egbinola, C.N., Obarein, O.A., Mupenzi, C. & Chen, D. (2019). Spatio-temporal variation in rainfall-runo ff erosivity due to climate change in the Lower Niger Basin, West Africa. CATENA. 172, September 2018, 324–334.

Tenaga National Berhad Research (2005). Progress Report 5: An Impact Study of Different Land Use Type to Hydro Power Generation in Cameron Highlands.

Li, X. & Ye, X. (2018). Variability of rainfall erosivity and erosivity density in the Ganjiang River Catchment, China: Characteristics and influences of climate change. Atmosphere. 9, 2. Pp 202 -218

Pheerawat, P. & Udmale, P. (2017). Impacts of climate change on rainfall erosivity in the Huai Luang watershed, Thailand. Atmosphere. 8, 8. 431- 446