Hydrological and Hydraulic Modelling of Sekolo River Diversion for Coal Mining Activities

Authors

  • Wahyu Gendam Prakoso Universitas Pakuan
  • Dinta Anindy Ismiralda Universitas Pakuan

DOI:

https://doi.org/10.30736/cvl.v9i1.1186

Keywords:

Hydrological, Hydraulic, Modelling, River Diversion

Abstract

A Hydrological and hydraulic modeling of the proposed diversion of the Sekolo River for coal mining purposes will provide an overview and technical information on the proposed river realignment and identify potential impacts on the use of the Sekolo River. It is being carried out for River extension to maintain river sustainability and functionality. Sekolo River watershed modeling utilizes a combination of hydrological analysis and open-channel hydraulic modeling using HEC-HMS and HEC-RAS software. To meet the area criterion (volume), the dimensions of the diversion channel are planned with B = 15 m.  H = 1.5 m; m = 1.5; L = 1253 m. These dimensions make the volume of the diversion approximately the same as the existing river. Hydraulic simulation results showed that the flood level would not rise downstream of the diversion channel. The upstream (Q25) peak flow rate is 41.90 m3/s, while the downstream peak flow rate after diversion is increased by 0.02% compared to the existing flow rate. After introducing the diversion channel, the difference in flood peak arrival time (Tp) will be 3 minutes earlier than before the diversion.

Downloads

Download data is not yet available.

References

Hydrologic Engineering Center – United States Army Corps of Engineers [HEC-USACE] . HEC-RAS River Analysis System Manual. (https://www.hec.usace.army.mil/software/hec-ras/features.aspx, 15 November 2023).

Flatley, Alissa, Rutherfurd, Ian. Rules of reengagement: integrating geomorphology into river diversion designs. Proceeding of 10 th Australian Stream Management Conference 2020. Kingscliff, New South Wales (NSW), Australia, https://www.researchgate.net/publication/353702271_Rules_of_reengagement_integrating_geomorphology_into_river_diversion_designs ,2021

Uca, Lamada, M, Arfan A, Haris, NA. Flood Modelling Using Integration of Multi-data Analysis and HEC-RAS Model in Mata Allo River, Sulawesi. E3S Web Conf. Volume 400, International Conference on Sciences, Mathematics, and Education (ICoSMEd 2022).

Setiawan, A, Taufik, M, Larasati, NA. Analisis Hidrologi Penentuan Debit Banjir Bendung Tegalduren Kabupaten Purworejo. Jurnal Surya Beton, Volume 6, Nomor 2. 2022

Ata, F, Toriman, ME, Desa, SM, San, LY, Kamarudin, MKA. Development Of Hydrological Modelling Using HEC-HMS And HEC-RAS For Flood Hazard Mapping At Junjung River Catchment. PLANNING MALAYSIA: Journal of the Malaysian Institute of Planners,VOLUME 21 ISSUE 6, Page 116 – 129. 2023

Idfi, G, Rahayuningsih, T, Suryoputro, N. Diversion canal to decrease flooding at Kemuning river, Sampang district. IOP Conf. Series: Materials Science and Engineering 930 (012073). 4th International Conference on Civil Engineering Research (ICCER). 2020

Sukmajati , EI, Kusuma, MSB, Hatmoko, W, Farid, M, Natasaputra , S. Kajian Model Matematik Efektivitas Normalisasi Sungai Terhadap Penurunan Risiko Banjir Studi Kasus : Sungai Tikala, Kota Manado. 2022

KIDECO. Feasibility Study WIUPK Roto Samurangau dan WIUPK Susubang Uko. 2021.

Ewea, HA, Al-Amri, NS, Elfeki, AM. Analysis of maximum flood records in the arid environment of Saudi Arabia. GEOMATICS, NATURAL HAZARDS AND RISK, VOL. 11, NO. 1,pp. 1743–1759. 2020.

Ewea, HA, Elfeki, AM, Al- Amri, NS. Development of intensity–duration–frequency curves for the Kingdom of Saudi Arabia. GEOMATICS, NATURAL HAZARDS AND RISK, VOL. 8, NO. 2,pp. 570–584. 2017.

Chavez, LG, Studart, TMC, Campos, JNB, Filho, FAS. Regional envelope curves for the state of Ceará: a tool for verification of hydrological dam safety. Revista Brasileira de Recursos Hídricos, Brazilian Journal of Water Resources. http://dx.doi.org/10.1590/2318-0331.021720160062 , 2017.

Lima, GD, Marcellini, SS, Neill, CR, Salla, MR. Preliminary estimate of floods discharge in Brazil using Creager envelope curves. Revista Brasileira de Recursos Hídricos, Brazilian Journal of Water Resources. https://doi.org/10.1590/2318-0331.011716078 , 2017.

Vogel, RM, Matalas, RC, England, JF, Castellarin, A. An assessment of exceedance probabilities of envelope curves. WATER RESOURCES RESEARCH, VOL. 43, W07403, doi:10.1029/2006WR005586, 2007.

Karamma, R, Badaruddin, S, Mustamin, R, Saing , Z. Flood Modelling due to Dam Failure Using HEC-RAS 2D with GIS Overlay: Case Study of Karalloe Dam in South Sulawesi Province Indonesia. Civil Engineering and Architecture 10(7): 2833-2846, 2022

Bachri, S, Aldianto, YE, Sumarmi, Kresno, SBU, Naufal, M. Flood Modelling Of Badeng River Using HEC-RAS In Singojuruh Sub District, Banyuwangi Regency, East Java, Indonesia. Jurnal Geografi Vol 13 No. 1.2021

Nugroho, J, Soekarno, I, Harlan, D. Model of Ciliwung River Flood Diversion Tunnel Using HEC RAS Software. MATEC Web of Conferences 147, 03001. 2018

Miedema, SA. Constructing The Shields Curve, A New Theoretical Approach And Its Applications. WODCON XIX, Beijing China, September 2010.

Miedema, SA. Constructing The Shields Curve Part C: Cohesion By Silt, Hjulstrom, Sundborg. Proceedings of the ASME 2013 32nd International Conference on Ocean, Offshore and Arctic Engineering OMAE2013,June 9-14, 2013.

Corcoran, MK, Sharp, MK, Wibowo, JL, Ellithy, G. Evaluating the mechanisms of erosion for coarse-grained materials. E3S Web of Conferences 7. FLOODrisk 2016 - 3rd European Conference on Flood Risk Management. 2016

Downloads

PlumX Metrics

Published

2024-03-21

How to Cite

Prakoso, W. G., & Ismiralda, D. A. (2024). Hydrological and Hydraulic Modelling of Sekolo River Diversion for Coal Mining Activities. Civilla : Jurnal Teknik Sipil Universitas Islam Lamongan, 9(1), 47–60. https://doi.org/10.30736/cvl.v9i1.1186

Issue

Section

Jurnal CIVILA