An integrated methodology for predicting material wear rates due to erosion-corrosion

17th International Corrosion Congress 2008: Corrosion Control in the Service of Society

Volumn 5, Issue , 2008, Pages 3078-3095

  Gnanavelu, A ^a   Kapur, N ^a   Neville, A ^a   Flores, J F ^a  

^a UNIVERSITY OF LEEDS   (United Kingdom)

Author keywords

CFD; Erosion corrosion prediction; Particle tracking; Solid particle erosion

Indexed keywords

CFD SIMULATIONS; EROSION DAMAGE; EROSION-CORROSION; FLUID HANDLING EQUIPMENTS; INTEGRATED METHODOLOGY; JET IMPINGEMENT TEST; MATERIAL WEAR; OIL AND GAS SECTOR; PARTICLE IMPACT; PARTICLE IMPACT VELOCITIES; PARTICLE TRACKING; PIPE GEOMETRY; PROCESS INDUSTRIES; SOLID PARTICLE EROSION; SOLID PARTICLE IMPACTS; WEAR RATES; WEAR SCARS;

COMPUTER SIMULATION; CORROSION PREVENTION; CORROSION RESISTANCE; EROSION; FORECASTING; OIL SANDS; WEAR OF MATERIALS;

COMPUTATIONAL FLUID DYNAMICS;

EID: 84864987442     PISSN: None     EISSN: None     Source Type: Conference Proceeding    
DOI: None     Document Type: Conference Paper

References (27)

1. Reza, F., Corrosion and Erosion-Corrosion Behaviour of Materials Used for Oil sands Applications, PhD Thesis, Engineering and Physical Science (2005) Herriot-Watt University.
2. Tian, H.H., G.R. Addie, and K.V. Pagalthivarthi, Determination of wear coefficients for erosive wear prediction through Coriolis wear testing. Wear, 2005. 259(1-6): p. 160-170.
3. Tian, H.H., G.R. Addie, and E.P. Barsh, A new impact erosion testing setup through Coriolis approach. Wear, 2007. 263(1-6): p. 289-294.
4. Clark, H.M., On the impact rate and impact energy of particles in a slurry pot erosion tester. Wear, 1991. 147(1): p. 165-183.
5. Gandhi, B.K., S.N. Singh, and V. Seshadri, A study on the effect of surface orientation on erosion wear of flat specimens moving in a solid-liquid suspension. Wear, 2003. 254(12): p. 1233-1238.
6. Hawk, J.A., et al., Laboratory abrasive wear tests: investigation of test methods and alloy correlation. Wear, 1999. 225-229(Part 2): p. 1031-1042
7. Henday, G., A Comparison of Commercial Pipe Materials Intended for the Hydraulic Transport of Solids. 1988, BHRA.
8. Wood, R.J.K. and D.W. Wheeler, Design and performance of a high velocity air-sand jet impingement erosion facility. Wear, 1998. 220(2): p. 95-112.
9. Neville, A. and T. Hodgkiess, Characterisation of high-grade alloy behaviour in severe erosioncorrosion conditions. Wear, 1999. 233-235: p. 596-607.
10. Shook, C.A., et al., Relative Wear Rate Determinations for Slurry Pipelines. Journal of Pipelines, 1981. 1: p. 273-280.
11. Been, J., et al., Predicting Wear of Hydro Transport Pipelines in Oil Sand Slurries, Alberta Research Council / Coanada Research and Development Corporation.
12. Wood, R.J.K., et al., Comparison of predicted and experimental erosion estimates in slurry ducts. Wear, 2004. 256(9-10): p. 937-947.
13. Schaan, J., N. Cook, and R.S. Sanders, On-line wear measurements for commercial-scale, coarse-particle slurry pipelines, Syncrude Canada Ltd.
14. Finnie, I., Erosion of surfaces by solid particles. Wear, 1960. 3(2): p. 87-103.
15. Clark, H.M., The influence of the flow field in slurry erosion. Wear, 1992. 152(2): p. 223-240.
16. Benchaita M.T., Griffith P., Rabinowicz E., Erosion of Metallic Plate by Solid Particles Entrained in a Liquid Jet. ASME Vol. 105, No.3 (1983), 215-222.
17. Wang, Y. and D.O. Northwood, Effects of O2 and H2 on the corrosion of SS316L metallic bipolar plate materials in simulated anode and cathode environments of PEM fuel cells. Electrochimica Acta, 2007. 52(24): p. 6793-6798.
18. Bjordal, M., et al., Erosion and corrosion properties of WC coatings and duplex stainless steel in sand-containing synthetic sea water. Wear, 1995. 186-187(Part 2): p. 508-514.
19. Meng, H., X. Hu, and A. Neville, A systematic erosion-corrosion study of two stainless steels in marine conditions via experimental design. Wear, 2007. 263(1-6): p. 355-362.
20. Hu, X. and A. Neville, The electrochemical response of stainless steels in liquid-solid impingement. Wear, 2005. 258(1-4): p. 641-648.
21. Brown, G.J., Erosion prediction in slurry pipeline tee-junctions. Applied Mathematical Modelling, 2002. 26(2): p. 155-170.
22. Wang, J. and S.A. Shirazi, A CFD Based Correlation for Erosion Factor for Long-Radius Elbows and Bends. ASME, 2003. 125: p. 26-34.
23. Clark, H.M., The influence of the flow field in slurry erosion. Wear, 1992. 152(2): p. 223-240.
24. Hutchings, I.M., Prediction of the resistance of metals to erosion by solid particles. Wear, 1975. 35(2): p. 371-374.
25. Dhar, S., et al., Erosion mechanisms due to impact of single angular particles. Wear, 2005. 258(1-4): p. 567-579.
26. Desale, G.R., B.K. Gandhi, and S.C. Jain, Slurry erosion of ductile materials under normal impact condition. Wear, 2008. 264(3-4): p. 322-330.
27. Efird, K.D., et al., Correlation of steel corrosion in pipe flow with jet impingement and rotating cylinder tests. Journal: Corrosion; Volume: 49; Issue: 12; Other Information: PBD: Dec 1993, 1993: p. Size: pp. 992-1003.