CHARACTERIZATION ANALYSIS FOR SEDIMENT MANAGEMENT IN GROGOL RIVER

Authors

  • Arni Nurhawa Jurusan Teknik Sipil Jakarta Global University
  • Bambang Setio Budianto Jurusan Teknik Sipil Jakarta Global University
  • Aulia Choiri Windari Jurusan Teknik Sipil Jakarta Global University

DOI:

https://doi.org/10.61942/msj.v3i3.396

Keywords:

river sedimentation, sieve analysis, grain gradation, clayey sand, specific gravity, Grogol River

Abstract

Abstract

This study analyzed the grain size distribution and physical characteristics of the Grogol River bed sediment, Grogol Petamburan District, West Jakarta. This river plays an important role in the urban drainage system, but sediment accumulation causes siltation and a decrease in its capacity, thus increasing the risk of flooding during the rainy season. This study aims to provide technical data for sedimentation control. The method used is quantitative with laboratory tests, including grain size analysis (sieve analysis), specific gravity test, and water absorption. Sediment samples were taken from the river bed at certain points, then dried, sieved, and weighed. The analysis refers to SNI 03-1968-1990 and ASTM C-33. The results showed that 45% of the sediment material passed the No. 200 sieve (0.075 mm), classified as Clayey Sand (SC) according to the Unified Soil Classification System (USCS). The grain size distribution is classified as poorly graded, indicating an uneven and homogeneous size distribution, thus accelerating sedimentation. The fine fraction exceeds the ASTM limit which allows a maximum of 3% to pass the No. 200 sieve for fine aggregate. The bulk specific gravity value of 2.353 gr/cc, bulk SSD specific gravity of 2.415 gr/cc, apparent specific gravity of 2.510 gr/cc, and absorption of 2.7% indicate moderate porosity. These characteristics affect sediment stability and movement, especially when the flow rate changes. Overall, the Grogol River sediment has the potential to accelerate sedimentation, worsen siltation, and reduce the river's hydraulic capacity. These findings form the basis for planning mitigation strategies such as normalization, routine dredging, settling ponds, and adaptive drainage management according to local sediment characteristic

Downloads

Download data is not yet available.

References

Amalia, A. (2020). Architecture as a Sponge for Air Pollution in West Jakarta.

ANANDA MUHAMAD TRI UTAMA. (2022). STUDY OF THE EFFECT OF BED LOAD SEDIMENT TRANSPORT IN IRRIGATION CHANNELS USING HEC-RAS 6.0 Submitted Title. 9, 356–363.

Apriyanti, O., & Arbaningrum, R. (2024). Analysis of Grogol River Flood Discharge Reduction Due to the Construction of the Lebak Bulus Reservoir. Widyakala Journal: Journal of Pembangunan Jaya University, 11(1), 18. https://doi.org/10.36262/widyakala.v11i1.600

Asdar, A., Sangadji, FM, & Abdullah. (2021). Surface Flow Rate and Erosion Against Land Use In Batuboy Village, Buru Regency. Journal of Agricultural Science), 19(1), 59–66. http://jurnal.unmuhjember.ac.id/

DKI Jakarta, DLH (2024). RIVER WATER QUALITY MONITORING 2024. https://lingkunganhidup.jakarta.go.id/files/LAPORAN_AIR/comprs_FINAL_LA_PEMANTAUAN_KUALITAS_AIRSUNGAI_2024.pdf

Doank, H., Setiaji, B., & Wijaya, A. (2024). Evaluation of the Effectiveness of Sediment Control Structures (Check Dams) in Reducing Sedimentation Rates in the Jatigede Reservoir. 6(1), 53–65.

Gaffar, F., Anwar, F., & Almidar, H. (2024). KARAJATA ENGINEERING Journal. 4(1), 146–152. https://doi.org/10.31850/karajata.v4i1.2977

GIANETE, BP (2023). Analysis of Bed Load Sediment Transport with.

Herdian, R., Siddiq, BA, Suryaman, NN, & Ardiansyah, NP (2024). Analysis of Flow Types in Open Channels with Obstacles. Jurnal Komposit: Jurnal Ilmu-Ilmu Teknik Sipil, 8(2), 213–219. https://doi.org/10.32832/komposit.v8i2.15499

Hidayati, AM, Yekti, MI, Eka, GF, & Sujana, A. (2021). Analysis of Sedimentation Magnitude and Its Mitigation in the Downstream of Tukad Unda Klungkung with the Hec-GeoRAS Application. Civil Engineering Communication Media, 27(2), 161–169.

Humairah Annisa, Ratna Musa, AM (2021). Study of Characteristics and Sediment Rate of Maros River.pdf. Muslim University of Indonesia. https://d1wqtxts1xzle7.cloudfront.net/88302083/276-Article_Text-581-1-10-20210321-libre.pdf?1657068997=&response-content-disposition=inline%3B+filename%3DStudi_Karakteristik_dan_Laju_Sedimen_Sun.pdf&Expires=1736938324&Signature=Ib~XeydAgh7xHZYD12NapdUkr6L

Ib, GP, Wirahman, W., Yusril, Y., Iw, Y., & Saadi, Y. (2022). Analysis of Bed Load Sediment Transport in the Ngolang River and Tebelo River in the Mandalika Special Economic Zone (KEK). 19(2), 4–10.

Iqbal, M., Zuhri, S., & Sisinggih, D. (2022). Sediment Transport Analysis of the Welang River, Pasuruan Using the HEC-RAS Application. 3(1), 57–66.

Kurniawan, V., Pranoto, WA, & Ongga, FP (2023). Review of the Grogol Polder System in Dealing with Floods. JMTS: Jurnal Mitra Teknik Sipil, 6(3), 719–730. https://doi.org/10.24912/jmts.v6i3.25025

Lestari, PR, Muliadi, M., Risko, R., Kushadiwijayanto, AA, & Nurrahman, YA (2024). Analysis of Bottom Sediments in the Duri River Estuary, Bengkayang Regency, West Kalimantan. Equatorial Sea Journal, 7(1), 33. https://doi.org/10.26418/lkuntan.v7i1.64864

Makmur Zainuddin, MT, Irmanto, I., Nugroho, J., & Hatmoko, W. (2023). SEDIMENTATION MODELING USING HEC-RAS 6.1 TO ANALYZE CHANGES IN THE TONDANO RIVER'S BASE ELEVATION, NORTH SULAWESI. JOURNAL OF HYDRAULIC ENGINEERING, 14(1), 41–54. https://doi.org/10.32679/jth.v14i1.721

Mauliddiyah, NL (2021). Analysis of Sediment Content in the Lantebung River, Jenelata Sub-Watershed, Jeneberang River Watershed. Title. Pharmacognosy Magazine, 75(17), 6.

Minister of Transportation of the Republic of Indonesia. (2022). No Title. Decree of the Minister of Transportation of the Republic of Indonesia Number KM 10 of 2022 Concerning Procedures for Optimizing Materials from Dredging Works.

Novelyne, FG, & Gunarto, D. (2024). Application of HEC-RAS for Analysis of Bottom Sediment Transport on Sediment Transport Discharge in the Berkat Ditch Channel. 14(01), 251–264.

Nuryoto. (2023). Study of Separation of Precipitated Calcium Carbonate (Pcc) and Water Products from the Reaction Between Milk of Lime and CO2 Using a Sedimentation Process. Chemical Engineering Innovation, 8(2), 95–101.

Pokhrel, S. (2024). SEDIMENT CHARACTERISTICS AND TRANSPORTATION PATTERNS IN RIVERS BASED ON FLOW DISCHARGE VARIATIONS Title. Nenny, 15(1), 37–48.

Prandono, T. (2022). Effectiveness of the Gesing Kerjo Dam in Mitigating the Impact of Mudflow Due to Sediment Transport Loads. Surakarta Civil Engineering Review (SCER), 9–20. http://ejurnal.unsa.ac.id/index.php/scer/article/view/89%0Ahttp://ejurnal.unsa.ac.id/index.php/scer/article/download/89/69

Refina Fatriza. (2023). UBT26-01-2024-093826. In TOTAL SEDIMENT TRANSPORT ANALYSIS IN THE RAWASARI RESERVOIR CHANNEL IN TARAKAN CITY USING HEC-RAS 6.0.

Rosyadewi, R., & Hidayah, Z. (2020). Comparison of Sedimentation Rate and Sediment Characteristics in the Socah Estuary, Bangkalan, and Porong, Sidoarjo. Juvenil: Scientific Journal of Marine and Fisheries, 1(1), 75–86. https://doi.org/10.21107/juvenil.v1i1.6832

Rusdi, A., Nurbia, N., Pristianto, H., Butudoka, MA, Pamudjianto, A., & Desembardi, F. (2023). Bottom Sediment Rate in the Klagison River Using the HEC-RAS Program. Konstruksia, 15(1), 47. https://doi.org/10.24853/jk.15.1.47-57

Sanchez, A. (2021). HEC-RAS 2D Sediment User Manual. US Army Corps of Engineers, 6.5(September), 1–121.

Suhada, B., Nugroho, H., Suprapto, & Herawati, H. (2022). Analysis of Dam Collapse Due to Piping and Flood Inundation Mapping (Case Study: Saguling Dam). Jurnal Saintis, 22(01), 1–10. https://doi.org/10.25299/saintis.2022.vol22(01).8081

USACE. (2025). HEC-RAS HEC-RAS Hydraulic Reference. January, 354–355. https://www.hec.usace.army.mil/confluence/rasdocs/ras1dtechref/latest/stable-channel-design-functions/sediment-transport-capacity/hydraulic-parameters

Virlayani, A., Isnan Munafry, M., Ikhwanto Amir, M., Amir Zainuddin, M., Irrigation Engineering Study, P., Teknik, F., Muhammadiyah Makassar Jl Sultan Alauddin No, U., & Selatan, S. (2024). Analysis of Sediment Characteristics and Sedimentation Rate of the Tino River, Jeneponto Regency. Journal of Hydro Engineering, 17(1), 8–13.

Wattimury, AB, Buyang, CG, & Kalalimbong, A. (2024). Scour Evaluation on Waikaka Bridge Using Hec-Ras 5.0.7 Software. Symmetric Journal, 13(2), 734–740. https://doi.org/10.31959/js.v13i2.1169

Wirawan, MK, Huda, AC, Ariefianto, RM, Laksono, R., Praktikto, WA, Assidiq, FM, & Putriyanti, RY (2022). Sedimentation Study for Alternative Layout Development at Pier C of PT Petrokimia Gresik. Marina Oceanography Bulletin, 11(3), 315–329. https://doi.org/10.14710/buloma.v11i3.44684

Yulianto, U. (2022). Surface Runoff Study in the Cidurian River Basin in Bogor Regency. Ismetek Journal, 14(1), 1–5.

Asdak, C. (2014). Hydrology and Watershed Management, Gajah Mada University

Press, Yogyakarta.

Wardhana, PN (2015). Analysis of sediment transport in the Opak River using

HEC-RAS 4.1 program. 0. Technician, 22-31.

Anwas, M, 1994, Landforms, http:// elcom.umy.ac.id/elschool

/muallimin_muhammadiyah /file.php/1/materi/Geografi Bentuk%20muka%20bumi. Pdf, accessed on April 20, 2015.

Downloads

Published

15-08-2025

How to Cite

Nurhawa, A., Budianto, B. S., & Windari, A. C. (2025). CHARACTERIZATION ANALYSIS FOR SEDIMENT MANAGEMENT IN GROGOL RIVER. MSJ : Majority Science Journal, 3(3), 25–41. https://doi.org/10.61942/msj.v3i3.396

Issue

Section

Articles