PREDIKSI LUASAN AREA TERPAPAR TSS DARI KEGIATAN DREDGING PADA ALUR PEMASANGAN PIPA RC-06 DI ESTUARI DELTA MAHAKAM

I Wayan Nurjaya, Andri Purwandani

Abstract

In general, natural resources capable of generating foreign exchange, such as: gas, petroleum and various other minerals are found in locations that have high productivity. Conditions of waters that have high productivity serves to support the sustainability of biological resources (e.g.: fish, mangroves, seagrass beds, seaweed and coral reefs). The government in this case the Ministry of Environment and Forestry (formerly the Ministry of the Environment) actually has made the signs of a rule that must be met by business actors who conduct activities in sensitive areas to environmental changes. PT. Total E & P Indonesia (TEPI) located in Balikpapan has long been engaged in exploration and exploitation of oil and gas in the Mahakam Delta. The large flow of branches of the Mahakam River empties into the Mahakam Delta provides a promising business opportunity for the farmers to open their business. While TEPI has oil wells are scattered in the delta area, pipelines are needed to collect the oil from the wells to the processing site. Because of the large number of streams causing many oil and gas pipes to cross the river (river cross pipes) that require special handling and meet the standards of technical rules and environment set by the government to be safe from passing boats or fishing boats that pass at the location. This study was conducted to predict the extent of exposed areas of exposure, especially the TSS concentration generated from the dredging activities in the pipeline. The simulation results show that the area of impact (TSS> 80 mg / L) is 74275.13 m2 dominantly moving westward from the dredging location (RC-06 = River Crossing Pipe No. 6). The farthest distance of the affected river body (TSS> 80 mg / L) to the west is 557.00 m from RC-06. The farthest distance of the affected river body (TSS> 80 mg / L) to the northeast is 240.81 m from RC-06. The farthest distance of the affected river body (TSS> 80 mg / L) to the southeast is 216.98 m from the RC-06 location. There is no water mass with TSS> 80 mg / L entering the pond. Sedimentation due to dredging activities is not accumulated and has no impact on shrimp farming business. The results of this study is expected to make a scientific basis in helping solve the problem of compensation requested by the farmers to TEPI due to decreased tambak production.

References

[BAKOSURTANAL]. 2003. Citra Satelit Landsat untuk inventarisasi sumberdaya alam pesisir dan laut di delta mahakam. Pusat Survei Sumberdaya Alam Laut. Bakosurtanal.
[KKP]. 2007. Penerapan Best Management Practices (BMP) pada Budidaya Udang Windu (Panaeus monodon Fab-ricius) Intensif. Balai Besar Pengembangan Budidaya air Payau. Direktorat Jenderal Perikanan Budidaya. KKP.
Alford, J.B., M.S. Peterson, and C.C. Green. 2015. Impacts of Oil Spill Disaster on Marine Habitats and Fisheries in North America. CRC Press, Taylor & Francis Group. New York.
BouDager FMK, Wilson MEJ. 2000. A revision of some larger Foraminifera from the Miocene of East Kalimantan. Micropalaeontology 46 (2).
Bray, R.N. 2008. Environmental Aspects of Dredging. Taylor & Francis/Balkema. Netherlands.
Budhiman S, Hobma T, Vekerdy Z. 2005. Remote Sensing for Mapping TSM Concentration in Mahakam Delta: an Analytical Approach. The Thirteenth Workshop of OMISAR.
Burt TN. 1986. Field Settling Velocities of Estuary Muds. Estuarine Cohesive Sediment Dynamics. Springer Verlag. Berlin.
Carpenter, A., 2016. Oil Pollution in the North Sea. Springer International Publishing Switzerland
Dean, J.R. 2013. Methods for Environmental Trace Analysis. John Wiley & Sons Ltd. The Atrium, Southern Gate, Chichester, West Sussex PO19 8SQ England.
Forstner, U. and B. Westrich. 2007. Sediment Dynamics and Pollutant Mobility in Rivers. Springer-Verlag Berlin Hei-delberg.
Gunnerson, C.G. and J.A. French. 1996. Wastewater Man-agement for Coastal Cities, the Ocean Disposal Option. Springer-Verlag Berlin Heidelberg
KataData, 2017. Indonesia dan Australia Bahas Kasus Tumpahan Minyak Montara. http://katadata.co.id/berita/2017/03/06/indonesia-dan-australia-bahas-kasus-tumpahan-minyak-montara. Diunduh pada tanggal 29 Mei 2017, pukul 21:18:33
Koran Online Pikiran Rakyat. 2008. Pantai Tercemar Minyak Mentah. http://www.pikiran-rakyat.com/jawa-barat/2008/09/17/76747/pantai-tercemar-minyak-mentah. Diunduh pada Tanggal 29 Mei 2017, Pukul 20:34:01 wib.
Krone B. 1982. The Significant of Aggregate Properties to Transport Processes. Estuarine Cohesive Sediment Dy-namics. Springer Verlag. Berlin.
Munk W, Anderson E. 1948. Notes on The Theory of The Thermocline. Journal of Marine Research (7).
[NASA]. 1992. Astronaut Photography of Coral Reefs. NASA.[http://eol.jsc.nasa.gov/newsletter/CoralReefs/].
[OzCoast]. 2010. OzCoast and Oz Estuaries. Australia’s Online Coastal Information Portal. [www.ozcoasts.org.au].
Parchure TM, Mehta AJ. 1985. Erosion of Soft Cohesive Sediment Deposits. Journal of Hydraulic Engineering – ASCE 111(10).
Prihartini TR. 2003. Spatial Optimation, Dynamic and Simu-lation Model For Coastal Resources management in Ma-hakam Delta. Disertasi. IPB.
Rahman AF, Dragoni D, Hadriyanto D. 2011. Tracking man-grove land change in Mahakam Delta with time-series of high fidelity MODIS imagery. World Delta Summit. Ma-hakam.
Rodi W. 1984. Turbulence Models and Their Application in Hydraulics. IAHR. Delft. The Netherlands.
Smagorinsky J. 1963. General Circulation Experiment with The Primitive Equations. Monthly Weather Review (91:3).
Somasundaran, P., P. Patra, R.S. Farinato and K. Papadopou-lus. 2014. Oil Spill Remediation, Colloid Chemistry-Based Principles and Solution. John Wiley & Sons Inc. All rights reserved. Canada
ReSutrisno D. 2003. The Assessment of Rapid Landuse Change and Its Impact on Sustainable Fisheries. The Open Meeting of Global Environmental Change Research Community. Montreal. Canada.
Teeter AM. 1986. Vertical Transport in Fine-Grained Sus-pension and Nearly-Deposited Sediment. Estuarine Cohe-sive Sediment Dynamics. Springer Verlag. Berlin.
Wandera LNN. 2011. Mapping Chlorophyll Concentration in a Mangrove Forest by Model Inversion Approah Applied to Hyperspectral Imagery. Faculty of Geo-Information Science and Earth Observation. Thesis. University of Twente.
Williams GJ. 2012. Estimating Chlorophyll Content in a Mangrove Forest Using a Neighbourhood Based Inver-sion Approach. Faculty of Geo-Information Science and Earth Observation. Thesis. University of Twente.
Winterwerp. 1999. Hindered settling and self-weight consoli-dation. Delft University of Technology. Report Z2386.

Authors

I Wayan Nurjaya
i.wayan.nurjaya@apps.ipb.ac.id (Primary Contact)
Andri Purwandani
NurjayaI. W. and PurwandaniA. (2019) “PREDIKSI LUASAN AREA TERPAPAR TSS DARI KEGIATAN DREDGING PADA ALUR PEMASANGAN PIPA RC-06 DI ESTUARI DELTA MAHAKAM”, Jurnal Pengelolaan Sumberdaya Alam dan Lingkungan (Journal of Natural Resources and Environmental Management). Bogor, ID, 9(1), pp. 135-143. doi: 10.29244/jpsl.9.1.135-143.

Article Details