Bonding mechanism in cold gas spraying

Acta Materialia

Volumn 51, Issue 15, 2003, Pages 4379-4394

  Assadi, Hamid ^a   Gärtner, Frank ^b   Stoltenhoff, Thorsten ^b   Kreye, Heinrich ^b  

^a TARBIAT MODARES UNIVERSITY   (Iran)

^b HELMUT SCHMIDT UNIVERSITY   (Germany)

Author keywords

Adiabatic shear instability; Bonding; Cold gas spraying; Modelling; Particle impact

Indexed keywords

BONDING; HEATING; KINETIC ENERGY; MORPHOLOGY;

COLD GAS SPRAYING;

SPRAYING;

EID: 0041629478     PISSN: 13596454     EISSN: None     Source Type: Journal    
DOI: 10.1016/S1359-6454(03)00274-X     Document Type: Article

References (39)

1. Herman H., Sampath S., McCune R. MRS Bull. 25:2000;17.
2. Fincke J.R., Neiser R.A. MRS Bull. 25:2000;26.
3. Kreye H., Gärtner F., Kirsten A., Schwetzke R.H. High velocity oxy-fuel flame spraying state of the art, prospects and alternatives. Heinrich P. Proceedings of the Fifth HVOF Colloquium. 2000;5 Gemeinschaft Thermisches Spritzen, Unterschleißheim (Germany).
4. Richter H.J. Fundamental thermodynamic and fluid dynamic concepts related to high velocity oxy-fuel spraying. Heinrich P. Proceedings of the Fifth HVOF Colloquium. 2000;4 Gemeinschaft Thermisches Spritzen, Unterschleißheim (Germany).
5. Alkhimov A.P., Kosareve V.F., Papyrin A.N. Dokl Akad Nauk SSSR. 315:1990;1062.
6. Alkhimov AP, Papyrin AN, Kosarev VF, Nesterovich NI, Shushpanov MM. Gas-dynamic spray method for applying a coating. US Patent 5,302,414; April 12, 1994.
7. Alkhimov AP, Papyrin AN, Kosarev VF, Nesterovich NI, Shushpanov MM. Method and device for coating. European Patent 0 484 533 B1; January 25, 1995.
8. McCune R.C., Papyrin A.N., Hall J.N., Riggs W.L. II, Zajchowski P.H. An exploration of the cold-gas-dynamic spray method for several materials systems. Berndt C.C., Sampath S. Advances in thermal spray science and technology. 1995;1 ASM International, Materials Park (OH).
9. McCune R.C., Donlon W.T., Cartwright E.L., Papyrin A.N., Rybicki E.F., Shadley J.R. Characterization of copper and steel coatings made by the cold-gas-dynamic spray method. Berndt C.C. Thermal spray: practical solutions for engineering problems. 1996;397 ASM International, Materials Park (OH).
10. Dykhuizen R.C., Smith M.F. J Thermal Spray Tech. 7:1998;205.
11. Segall A.E., Papyrin A.N., Conway J.C., Shapiro D. JOM. 9:1998;52.
12. Stoltenhoff T., Kreye H., Richter H. J Thermal Spray Tech. 11:2002;542.
13. Dykhuizen R.C., Smith M.F., Gilmore D.L., Neiser R.A., Jiang X., Sampath S. J Thermal Spray Tech. 8:1999;559.
14. Borchers C., Stoltenhoff T., Gärtner F., Kreye H., Assadi H. MRS Symp Proc. 673:2001;P7.
15. Papyrin A.N., Kosarev V.F., Klinkow S.V., Alkhimov A.P. On the interaction of high speed particles with a substrate under the cold spraying. Lugscheider E.F., Berndt C.C. Proceedings of the International Thermal Spray Conference 2002. 2002;380 DVS-Verlag, Düsseldorf (Germany).
16. Brasher D.G., Butler D.J. Adv Mater Process. 147:1995;37.
17. Murr L.E. Shock waves for industrial applications. 1988;Noyes Publications, New Jersey.
18. Prümmer R. Explosivverdichtung pulvriger Substanzen: Grundlagen, Verfahren, Ergebnisse. 1987;Springer, Berlin.
19. Deribas A.A., Zakharenko I.D. Fizika Goreniya i Vzryva. 10:1974;409.
20. Hammerschmidt M., Kreye H. Microstructure and bonding mechanism in explosive welding. Meyers M.A., Murr L.E. Shock waves and high strain-rate phenomena in metals. 1981;961 Plenum Press, New York.
21. Zlobin S.B., Pai V.V., Yakovlev I.V., Kuz'min G.E. Combust Explosion Shock Waves. 36:2000;256.
22. Meyers M.A., Thadhani N.N., Yu L.H. Explosive shock wave consolidation of metal and ceramic powder. Murr L.E. Shock waves for industrial applications. 1988;265 Noyes Publications, New Jersey.
23. Nesterenko V.F. Dynamic loading of porous materials: potential and restrictions for novel materials applications. Murr L.E., Staudhammer K.P., Meyers M.A. Metallurgical and materials application of shock wave and high strain rate phenomena. 1995;3 Elsevier, Amsterdam.
24. Kasiray P., Vreeland T., Schwarz R.B., Ahrens T.J. Acta Metall. 32:1984;1235.
25. Raybould D. J Mater Sci. 16:1981;589.
26. Staudhammer K.P., Murr L.E. Principles and applications of shock wave compaction and consolidation of powdered materials. Murr L.E. Shock waves for industrial applications. 1988;237 Noyes Publications, New Jersey.
27. Schwarz R.B., Kasiraj P., Vreeland T., Ahrens T.J. Acta Metall. 32:1984;1243.
28. Rosato A.D., Vreland T., Prinz F.B. Int Mater Rev. 36:1991;45.
29. Gilmore D.L., Dykhuizen R.C., Neiser R.A., Roemer T.J., Smith M.F. J Thermal Spray Tech. 8:1999;576.
30. Papyrin A. Adv Mater Process. 159:2001;49.
31. ABAQUS™ 6.2-1. user manual. Hibbitt, Karlsson & Soerensen. Pawtucket (RI), 2001.
32. Olson G.B., Mescall J.F., Azrin M. Adiabatic deformation and strain localization. Meyers M.A., Murr L.E. Shock waves and high-strain-rate phenomena in metals. 1981;221 Plenum Press, New York.
33. Tzou D.Y. ASME J Heat Transfer. 117:1995;8.
34. Prakash G.S., Reddy S.S., Das S.K., Sundararajan T., Seetharamu K.N. Num Heat Transfer A. 38:2000;513.
35. Kapoor R., Nemat-Nasser S. Mech Mater. 28:1998;1.
36. Johnson G.R. Prog Astronaut Aeronaut. 155:1993;165.
37. Karpp R.R. Prog Astronaut Aeronaut. 155:1993;223.
38. Kamler F., Niessen P., Pick R.J. Can J Phys. 73:1995;295.
39. Nemat-Nasser S., Li Y. Acta Mater. 46:1998;565.