The effect of alloying elements on the crystallization behaviour and on the properties of galvanized coatings

Crystal Research and Technology

Volumn 39, Issue 1, 2004, Pages 23-29

  Vourlias, G ^a   Pistofidis, N ^a   Stergioudis, G ^a   Tsipas, D ^a  

^a ARISTOTLE UNIVERSITY OF THESSALONIKI   (Greece)

Author keywords

Alloying elements; Interface reactions; Salt spray conditions; Zinc coatings

Indexed keywords

ALLOYING ELEMENTS; CORROSION; CRYSTALLIZATION; GALVANIZING; INTERFACES (MATERIALS); MICROSTRUCTURE; SALTS; SCANNING ELECTRON MICROSCOPY; SURFACE REACTIONS; X RAY DIFFRACTION ANALYSIS; X RAY SPECTROSCOPY; ZINC;

INTERFACE REACTIONS; SALT SPRAY CONDITIONS; ZINC COATINGS;

COATINGS;

EID: 1242307279     PISSN: 02321300     EISSN: None     Source Type: Journal    
DOI: 10.1002/crat.200310144     Document Type: Article

References (19)

1. A. R. Marder, Progress in Materials Science 45, 191 (2000).
2. N. Katiforis, G. Papadimitriou, Influence of copper, cadmium and tin additions in the galvanizing bath on the structure, thickness and cracking behaviour of the galvanized coatings., Surface and Coatings Technology 78, 185 (1996).
3. J. J. Sebisty and R.H. Palmer, Investigation Rep. IR 59-58, Ottawa Mines Branch Department of Mines and Technical Surveys, 1959.
4. J. J. Sebisty and R. H. Palmer, 6th Int. Conf. on Hot Dip Galvanizing, Interlaken, pp. 215-234 (1961).
5. W. Radeker, F. K. Peters, and W. Friehe, 6th Int. Conf. on Hot Dip Galvanizing, Interlaken, pp. 238-264 (1961).
6. M. Guttmann, Y. Lepretre, A. Aubry Roche, Moreau T, Drillet P, Mataigne JM, Baudin H, Mechanism of the galvanizing reaction. Influence of Ti and P contents in steel and of its surface microstructure after annealing., In: GALVATECH '95. Chicago, ILQ Iron and Steel Society, pp.295 (1995).
7. Instruction Manual Salt Spray Chamber Type SC and Type SC/ KWT-Alternative Climate Test Chamber and type SC-450 (Umwelttechnik).
8. M. Isobe, Initial alloying behavior in galvannealing process., CAMP-ISIJ 4, 669 (1992).
9. N-Y. Tang, Modeling of enrichment in galvanized coatings., Met Mater Trans 26A, 1669 (1995).
10. M. Udernicek, J. S. Kirkaldy, Mechanism of iron attack inhibition arising from additions of aluminum to liquid Zn(Fe) during galvanizing/ Z. Metallkde 64, 649 (1987).
11. J. Strutzenberger, J. Faderl, Solidification and spangle formation of hot dip-galvanized zinc coatings., Met Mater Trans. 29A, 631 (1998).
12. F. A. Fasoyino, F. Weinberg, Spangle formation in galvanized sheet steel coatings, Met Trans 21B, 549 (1990).
13. Swanson, Tatge, Natl. Bur. Stand. (US), Circ. 539, 16 (1953).
14. J. Foct, P. Perrot, G. Reumont, Interpretation of the role of silicon on the galvanizing reaction based on kinetics, morphology and thermodynamics, Scr. Metal. and Mat. 28, 1195-1200 (1993).
15. F. Corvo, A. R. Mendoza, and M. Morcillo, Corrosion Science. 39(4), 815-820 (1997).
16. M. P. Brady, B. Gleeson, and I. G. Wright, Alloy design strategies for promoting protective oxide-scale formation 16-21 (2000), and references herein.
17. G. Vourlias, G. Stergioudis, D. Tsipas, H. Lefakis, On the induced corrosion mechanism of ferrous and non ferrous metals (to be published).
18. Ge Wang, B. Gleeson, D. L. Douglass, Oxid. Met. 35, 333-348 (1991).
19. F. Gesmundo, B. Gleeson, Oxid. Met. 44, 211-238 (1995).