Retrofitting of Bridge Piers against the Scour Damages: Case Study of the Marand-Soofian Route Bridge
Commenced in January 2007
Frequency: Monthly
Edition: International
Paper Count: 32797
Retrofitting of Bridge Piers against the Scour Damages: Case Study of the Marand-Soofian Route Bridge

Authors: Shatirah Akib, Hossein Basser, Hojat Karami, Afshin Jahangirzadeh

Abstract:

Bridge piers which are constructed in the track of high water rivers cause some variations in the flow patterns. This variation mostly is a result of the changes in river sections. Decreasing the river section, bridge piers significantly impress the flow patterns. Once the flow approaches the piers, the stream lines change their order, causing the appearance of different flow patterns around the bridge piers. New flow patterns are created following the geometry and the other technical characteristics of the piers. One of the most significant consequences of this event is the scour generated around the bridge piers which threatens the safety of the structure. In order to determine the properties of scour holes, to find maximum depth of the scour is an important factor. In this manuscript a numerical simulation of the scour around Marand-Soofian route bridge piers has been carried out via SSIIM 2.0 Software and the amount of maximum scour has been achieved subsequently. Eventually the methods for retrofitting of bridge piers against scours and also the methods for decreasing the amount of scour have been offered.

Keywords: Scour, Bridge pier, numerical simulation, SSIIM 2.0.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1336432

Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 2719

References:


[1] Akib. S, Mashodi. N, and Rahman. S, (2013), Semi-Integral Bridge Scour Countermeasure Using Gabion and Crushed Concrete Mixed with Palm Shell: A Review , Journal of Science and Technology 51 (2B) (2013) 59-68.
[2] Akib, S., Mohammadhassani, M., Jahangirzadeh, A., (2013), Application of Anfis and LR in Prediction of Scour Depth in Bridges, Computers & Fluids, doi: http://dx.doi.org/10.1016/ j.compfluid.2013.12.004.
[3] Karami, H., Basser, H., Ardeshir, A., Hosseini, S.H., (2012), Verification of numerical study of scou around spur dikes using experimental data, Water and Environment Journal, 49, 1–1.
[4] Akib, S., Fayyadh, M. M., Othman, I., (2011), Structural Behaviour of A Skewed Integral Bridge Affected by Different Parameters, J. Road Bridge Eng., 6(2), 107 114.
[5] Akib. S, Shirazi. SM, Sholichin. M, Othman. F, Fayyadh. MM, Primasari. B, (2011), Influence of Flow Shallowness on Scour Depth at Semi-Integral Bridge Piers, Advanced Materials Research 243, 4478-4481.
[6] Fayyadh. M, Akib. S, Othman. I, Razak.HA, (2011), Experimental investigation and finite element modelling of the effects of flow velocities on a skewed integral bridge. Simulation Modelling Practice and Theory 19 (9), 1795-1810.
[7] Akib. S, Othman. F, Othman. I, Amini. A, Marzuki. MS, (2009), Local Scour at Integral Bridges with Single and Double Row Piles in a Two-Stage Channel. H2009: 32nd Hydrology and Water Resources Symposium.
[8] Hua Li, Roger A. Kuhnle, Brian D. Barkdoll, (2006), "Countermeasures Against Scour at Abutments,” Report No. 49 Oxford, Mississippi.
[9] Dey, S. and Barbhuiya,A.K., (2005), "Time Variation of Scour at Abutments,” Journal of Hydraulic Engineering, Vol. 131, pp 11-23.
[10] Mashair, M.B., Zarrati, A.R. and Rezayi, A.R., (2004), "Time Development of Scouring around a Bridge Pier Protected by Collar,” 2nd International Conference on Scour and Erosion, ICSE-2, Singapore, 8 p.
[11] Kayaturk, S.Y., Kokpinar, M.A. and Gogus, M., (2004), "Effect of Collar on Temporal Development of Scour around Bridge Abutments,” 2nd International Conference on scour and erosion, IAHR, Singapore, 14-17 November, pp. 180-186.
[12] Chiew, Y.M., (1992), "Scour Protection at Bridge Piers,” Journal of Hydraulic Engineering, Vol. 118, pp 1260-1269.
[13] Molinas, A., Kheireldin, K., Wu, and Baosheng., (1998), "Shear Stress around Vertical Wall Abutments,” Journal of Hydraulic Engineering, Vol. 124, pp 822.
[14] Melville, B. W., (1992), "Local Scour at Bridge Abutments,” Journal of Hydraulic Engineering, Vol. 118, pp 615-631. Ackers, P. and W.R. White. (1973) "Quantification of impacts of river regulation on fish: An energetic modeling approach”, Hydroinformatics 98, Copenhagen, Denmark.
[15] Kumar, V., Ranga Raju, K.G., and Vittal, N., (1999), "Reduction of Local Scour around Bridge Piers Using Solts and Collars,” Journal of Hydraulic Engineering, Vol. 125, pp. 1302-1305.
[16] Van Rijn, L.C. (1987) Mathematical modeling of morphological processes in the case of suspended sediment transport. Ph.D Thesis, Delft University of Technology.
[17] Olsen, NRB, (2009) A Three-dimensional numerical model for simulation of sediment movement in water intakes with multiblock option. Department of Hydraulic and environmental Engineering, The Norwegian University of Science and Technology. User's manual.
[18] Basser.H, Ardeshir.H, Karami.H, (2011), "Numerical Simulation of Scour around Spur dike series”, 10th Iran Hydraulic Conference, Rasht, Iran.
[19] Basser.H, Ardeshir.H, Karami.H, (2011), "A Study on the Function of Various Sediment Transport Equations in SSIIM 2.0 Three Dimensional Numerical Modeling”, 10th Iran Hydraulic Conference, Rasht, Iran.