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Original Articles

Local Scour Around Cylindrical Piers

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Pages 211-252 | Received 28 Jun 1977, Published online: 29 Jan 2010

Keep up to date with the latest research on this topic with citation updates for this article.

Read on this site (53)

Nasrin Eini, Sayed M. Bateni, Changhyun Jun, Essam Heggy & Shahab S. Band. (2023) Estimation and interpretation of equilibrium scour depth around circular bridge piers by using optimized XGBoost and SHAP. Engineering Applications of Computational Fluid Mechanics 17:1.
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Gaurav Misuriya, T. I. Eldho & B. S. Mazumder. (2023) Estimation of the local scour around the cylindrical pier over the gravel bed for a low coarseness ratio. International Journal of River Basin Management 0:0, pages 1-11.
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Praveen Rathod & Vivek L. Manekar. (2023) Comprehensive approach for scour modelling using artificial intelligence. Marine Georesources & Geotechnology 41:3, pages 312-326.
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Ningombam Bishwajit Singh, Thiyam Tamphasana Devi & Bimlesh Kumar. (2022) The local scour around bridge piers—a review of remedial techniques. ISH Journal of Hydraulic Engineering 28:sup1, pages 527-540.
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Cristian Rifo, Pedro Arriagada, Bernd Ettmer & Oscar Link. (2022) Frequency analysis of extreme scour depths at bridge piers and their contribution to bridge collapse risk. Hydrological Sciences Journal 67:13, pages 2029-2041.
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Ehsan Afaridegan, Manouchehr Heidarpour, Mohammadreza Goodarzi & Bashir Fallahi. (2022) Influence of suction and collar on reducing local scouring in cylindrical pier. Journal of Applied Water Engineering and Research 10:1, pages 27-38.
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Rahul Malik & Baldev Setia. (2021) Local scour around closely placed bridge piers. ISH Journal of Hydraulic Engineering 27:4, pages 396-403.
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Hongliang Qi, Junxing Zheng & Chenguang Zhang. (2021) Modeling excess shear stress around tandem piers of the longitudinal bridge by computational fluid dynamics. Journal of Applied Water Engineering and Research 9:3, pages 216-229.
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Iman Ahmadianfar, Mehdi Jamei & Xuefeng Chu. (2021) Prediction of local scour around circular piles under waves using a novel artificial intelligence approach. Marine Georesources & Geotechnology 39:1, pages 44-55.
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Francesco Coscarella, Roberto Gaudio & Costantino Manes. (2020) Near-bed eddy scales and clear-water local scouring around vertical cylinders. Journal of Hydraulic Research 58:6, pages 968-981.
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B. A. Vijayasree, T. I. Eldho & B. S. Mazumder. (2020) Turbulence statistics of flow causing scour around circular and oblong piers. Journal of Hydraulic Research 58:4, pages 673-686.
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Recep Kahraman, Matthew Riella, Gavin R. Tabor, Mohsen Ebrahimi, Slobodan Djordjević & Prakash Kripakaran. (2020) Prediction of flow around a sharp-nosed bridge pier: influence of the Froude number and free-surface variation on the flow field. Journal of Hydraulic Research 58:4, pages 582-593.
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Layla Ali Mohammed Saleh, Sumayah Amal Al-din Majeed & Fatin Abd el-kadhium M. Alnasrawi. (2019) Numerical study of the bridge pier scour using gene expression programming. Journal of Applied Water Engineering and Research 7:4, pages 287-294.
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Fayun Liang, Chen Wang & Xiong (Bill) Yu. (2019) Widths, types, and configurations: Influences on scour behaviors of bridge foundations in non-cohesive soils. Marine Georesources & Geotechnology 37:5, pages 578-588.
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Fatemeh Moradi, Hossein Bonakdari, Ozgur Kisi, Isa Ebtehaj, Jalal Shiri & Bahram Gharabaghi. (2019) Abutment scour depth modeling using neuro-fuzzy-embedded techniques. Marine Georesources & Geotechnology 37:2, pages 190-200.
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Alvaro Galan, Gonzalo Simarro, Cristina Fael & Antonio H. Cardoso. (2019) Clear-water scour at submerged pile groups. International Journal of River Basin Management 17:1, pages 101-108.
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B. A. Vijayasree, T. I. Eldho, B. S. Mazumder & N. Ahmad. (2019) Influence of bridge pier shape on flow field and scour geometry. International Journal of River Basin Management 17:1, pages 109-129.
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Rashed Hosseini, Ramin Fazloula, Mojtaba Saneie & Ata Amini. (2018) Bagged neural network for estimating the scour depth around pile groups. International Journal of River Basin Management 16:4, pages 401-412.
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Matias Quezada, Aldo Tamburrino & Y. Niño. (2018) Numerical simulation of scour around circular piles due to unsteady currents and oscillatory flows. Engineering Applications of Computational Fluid Mechanics 12:1, pages 354-374.
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Chen Wang, Xiong (Bill) Yu & Fayun Liang. (2017) Erosion mechanism of local scour around cushioned caisson on reinforced ground. Marine Georesources & Geotechnology 35:7, pages 1028-1036.
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Anurag Sharma, Rutuja Chavan & Bimlesh Kumar. (2017) Multi-scale statistical characterization of migrating pier scour depth in non-uniform sand bed channel. International Journal of River Basin Management 15:3, pages 265-276.
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Oscar Link, Cristian Castillo, Alonso Pizarro, Alejandro Rojas, Bernd Ettmer, Cristián Escauriaza & Salvatore Manfreda. (2017) A model of bridge pier scour during flood waves. Journal of Hydraulic Research 55:3, pages 310-323.
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Chang-Wook Park, Hyun Il Park & Yang-Ki Cho. (2017) Evaluation of the applicability of pier local scour formulae using laboratory and field data. Marine Georesources & Geotechnology 35:1, pages 1-7.
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Kiyoumars Roushangar, Shabnam Mirheidarian & Jalal Shiri. (2017) Modeling local pier scour with bed effect implications: heuristic vs. empirical strategies. ISH Journal of Hydraulic Engineering 23:1, pages 13-22.
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Alexandros N. Kallias & Boulent Imam. (2016) Probabilistic assessment of local scour in bridge piers under changing environmental conditions. Structure and Infrastructure Engineering 12:9, pages 1228-1241.
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Pedro Xavier Ramos, Ana Margarida Bento, Rodrigo Maia & João Pedro Pêgo. (2016) Characterization of the scour cavity evolution around a complex bridge pier. Journal of Applied Water Engineering and Research 4:2, pages 128-137.
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Min-Yuan Cheng & Minh-Tu Cao. (2015) Hybrid intelligent inference model for enhancing prediction accuracy of scour depth around bridge piers. Structure and Infrastructure Engineering 11:9, pages 1178-1189.
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Subhasish Das & Asis Mazumdar. (2015) Turbulence flow field around two eccentric circular piers in scour hole. International Journal of River Basin Management 13:3, pages 343-361.
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Mubeen Beg & Salman Beg. (2015) Scour hole characteristics of two unequal size bridge piers in tandem arrangement. ISH Journal of Hydraulic Engineering 21:1, pages 85-96.
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Moon Kyum Kim, Jong Hwa Won, Seok Ho Cho & Moonhyeong Park. (2013) Integrated assessment for route selection of river-crossing pipeline using structural and hydraulic approach. Structure and Infrastructure Engineering 9:9, pages 860-876.
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David C. Froehlich. (2013) Protecting bridge piers with loose rock riprap. Journal of Applied Water Engineering and Research 1:1, pages 39-57.
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Sebastien Muller, Pascal Guiraud & Alain Line. (2011) Particle bed deformation in front of a weir induced by subcritical laminar flow. Journal of Hydraulic Research 49:2, pages 194-204.
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Thomas Euler & Jürgen Herget. (2011) Obstacle-Reynolds-number based analysis of local scour at submerged cylinders. Journal of Hydraulic Research 49:2, pages 267-271.
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J. H. Shin & H. I. Park. (2010) Neural Network Formula for Local Scour at Piers Using Field Data. Marine Georesources & Geotechnology 28:1, pages 37-48.
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U.C. Kothyari & Ashish Kumar. (2010) TEMPORAL VARIATION OF SCOUR AROUND CIRCULAR BRIDGE PIERS. ISH Journal of Hydraulic Engineering 16:sup1, pages 35-48.
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Mohammad Muzzammil & Nadeem A. Siddiqui. (2009) A reliability-based assessment of bridge pier scour in non-uniform sediments. Journal of Hydraulic Research 47:3, pages 372-380.
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A.T. Moncada-M, J. Aguirre-Pe, J.C. Bolívar & E.J. Flores. (2009) Scour protection of circular bridge piers with collars and slots. Journal of Hydraulic Research 47:1, pages 119-126.
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Rajkumar V. Raikar & Subhasish Dey. (2008) Kinematics of horseshoe vortex development in an evolving scour hole at a square cylinder. Journal of Hydraulic Research 46:2, pages 247-264.
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F. N. Krampa-Morlu & R. Balachandar. (2007) Flow recovery in the wake of a suspended flat plate. Journal of Hydraulic Research 45:2, pages 270-278.
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B. Setia. (2005) MODELLING OF LOCAL SCOUR AROUND RECTANGULAR SUBMERGED VANE. ISH Journal of Hydraulic Engineering 11:2, pages 154-157.
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Faruque Mia & Hiroshi Nago. (2005) Dynamic behavior of bed material around bridge pier under water pressure variation. Journal of Hydraulic Research 43:1, pages 23-30.
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K. Babaeyan-Koopaei. (2003) Flow pattern in the scour hole around a cylinder. Journal of Hydraulic Research 41:4, pages 443-446.
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M. Muzzammil & T. Gangadhariah. (2003) The mean characteristics of horseshoe vortex at a cylindrical pier. Journal of Hydraulic Research 41:3, pages 285-297.
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Kamil H. M. Ali & Othman Karim. (2002) Simulation of flow around piers. Journal of Hydraulic Research 40:2, pages 161-174.
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Foo-Hoat lim & Yee-Meng Chiew. (2001) Parametric study of riprap failure around bridge piers. Journal of Hydraulic Research 39:1, pages 61-72.
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C. A. Du Arte & J. A. Sáinz. (1999) Riprap at bridge piers Tapis d'enrochements autour des piles de ponts. Journal of Hydraulic Research 37:3, pages 291-302.
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D.J. Needham & D.D. L. Zanré. (1997) On the alluvial hydraulics of steady flow around a bridge pier. Geophysical & Astrophysical Fluid Dynamics 84:3-4, pages 205-243.
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Ferdous Ahmed & Nallamuthu Rajaratnam. (1997) The three-dimensional turbulent boundary layer flow around bridge piers. Journal of Hydraulic Research 35:2, pages 209-224.
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Hong‐Yuan Lee & Shin‐Chern Chen. (1996) Migration of rectangular mining pit composed of nonuniform sediments. Journal of the Chinese Institute of Engineers 19:2, pages 255-264.
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Y. M. Chiew & B. W. Melville. (1987) Local scour around bridge piers. Journal of Hydraulic Research 25:1, pages 15-26.
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C. J. Baker. (1980) Theoretical Approach To Prediction Of Local Scour Around Bridge Piers. Journal of Hydraulic Research 18:1, pages 1-12.
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