Effect of compressive stresses on oxidation kinetics and oxide scale failure of pure nickel at 973 K

Abstract

The effect of a compressive stress on the oxidation kinetics and oxide scale failure of pure nickel was investigated. Compressive samples were subjected to stresses of 10 and 20 MPa, and the oxidation behaviour was studied at a temperature of 973 K. This study was performed mainly by comparisons of oxidation kinetics, surface morphology and cross-section of the oxidised samples. The results showed that applying a compressive stress induced an increase in the oxidation rate, and changes of the surface morphology. Compared with the samples without any applying stress, the oxide scale failure for the samples subjected to applying stresses was changed. This was related to the effect of compressive stresses on the vacancy diffusion.

Keywords

STRESS DIFFUSION HIGH TEMPERATURE OXIDATION NICKEL COMPRESSIVE

Get full access to this article

View all access options for this article.

References

Jones

F. H.

: Surf Sci. Rep., 2001 42 75–205.

Schutz

R. W.

and E:

D.E.

‘ ASM handbook: corrosion’ Vol. 13 669; 1992

Materials Park

OH, ASM International.

Khan

M. A.

Williams

R. L.

and Williams

D. F.

: Biomaterials 1996 17 2117–2126.

Geetha

Singh

A. K.

Muraleedharan

Gogia

A. K.

and Asokamani

: J. Alloys Compd 2001 329 264–271.

Davidson

J. A.

Mishra

A. K.

Kovasc

and Poggie

R. A.

: Bio-Med Mater. Eng., 1994 4 231–243.

Goodman

S. B.

Davidson

J. A.

Fornasier

V. L.

and Mishra

A. K.

: J. Appl. Biomater., 1993 4 331–339.

Martins

D. Q.

Osério

W. R.

Souza

M. E. P.

Caram

and Garcia

: Electrochim. Acta 2008 53 2809–2817.

Alves

A. P. R.

Santana

F. A.

Rosa

L. A. A.

Cursino

S. A.

and N:

E.N.

Mater. Sci. Eng. C 2004 C24693–696.

Oliveira

N. T. C.

Aleixo

Caram

and C:

A.C.

Mater. Sci. Eng. A 2007 A452-A453727–731.

10.

Trillo

E. A.

Ortiz

Dickerson

Villa

Stafford

S. W.

and Murr

L. E.

: J. Mater. Sci. - Mater. M 2001 12 283–292.

11.

nou

Y. L.

Niinomi

Akahori

Fukui

and Toda

: Mater. Sci. Eng. A 2005 A27628–36.

12.

Frateur

Cattarin

Musiani

and Tribollet

: J. Electroanal. Chem., 2000 482 202–210.

13.

Boere

: J. Appl Biomater., 1995 6 283–288.

14.

Oda

Kawada

Yoshinari

Hasegawa

and Okabe

: J. Jpn Soc. Dent. Mater. Dey 1996 15 317–322.

15.

Massalski

T. B.

: ‘Binary alloy phase diagrams’ Vol. 3; 1990

Materials Park

OH, ASM.

16.

Baboian

: ‘Corrosion tests and standards: application and interpretation’; 1995 USA ASTM.

17.

Robin

and Meirelis

J.P.

: J. Appl Electrochem., 2007 37 511–517.

18.

Shukla

A. K.

Balasubramaniam

and Bhargava

: Intermetallics 2005 13 631–637.

19.

Gonzalez

J. E. G.

and Mirza-Rosca

J. C.

: J. Electroanal. Chem., 1999 471 109–115.

20.

Popa

M. V.

Demetrescu

Vasilescu

Drob

Lopez

A. S.

Mirza-Rosca

Vasilescu

and Ionita

: Electrochim. Acta 2004 49 2113–2121.

21.

Al-Mayouf

A. M.

Al-Swayih

A. A.

Al-Mobarak

N. A.

and Al-Jabab

A. S.

: Mater. Chem. Phys., 2004 86 320–329.

22.

Aziz-Kerrzo

Conroy

K. G.

Fenelon

A. M.

Farrell

S. T.

and Breslin

C. B.

: Biomaterials 2001 22 1531–1539.

23.

Pan

Thierry

and Leygraf

: Electrochim. Acta 1996 41 1143–1153.

24.

Ibris

and Mirza Rosca

J.C.

: J. Electroanal. Chem., 2002 526 53–62.

25.

Pan

Thierry

and Leygraf

: J. Biomed. Mater. Res., 1996 30 393–402.

26.

Cattarin

Musiani

and Tribollet

: J. Electrochem. Soc., 2002 149 B457–B464.

27.

Cattarin

Frateur

Musiani

and Tribollet

: J. Electrochem. Soc., 2000 147 3277–3282.

28.

Fovet

Gal

J.-Y.

and Toumelin-Chemla

: Talanta 2001 53 1053–1063.