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Mazumdar, P. K., Jeelani, S. (1986) Fatigue crack propagation rate model based on a dislocation mechanism. Journal of Materials Science Letters, 5 (10) 972-974 doi:10.1007/bf01730252

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Reference TypeJournal (article/letter/editorial)
TitleFatigue crack propagation rate model based on a dislocation mechanism
JournalJournal of Materials Science Letters
AuthorsMazumdar, P. K.Author
Jeelani, S.Author
Year1986 (October)Volume5
Issue10
PublisherSpringer Science and Business Media LLC
DOIdoi:10.1007/bf01730252Search in ResearchGate
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Mindat Ref. ID16409552Long-form Identifiermindat:1:5:16409552:6
GUID0
Full ReferenceMazumdar, P. K., Jeelani, S. (1986) Fatigue crack propagation rate model based on a dislocation mechanism. Journal of Materials Science Letters, 5 (10) 972-974 doi:10.1007/bf01730252
Plain TextMazumdar, P. K., Jeelani, S. (1986) Fatigue crack propagation rate model based on a dislocation mechanism. Journal of Materials Science Letters, 5 (10) 972-974 doi:10.1007/bf01730252
In(1986, October) Journal of Materials Science Letters Vol. 5 (10) Springer Science and Business Media LLC

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Mazumdar, P. K., Jeelani, S. (1986) Plastic deformation β€” its role in fatigue crack propagation. Journal of Materials Science, 21. 3611-3614 doi:10.1007/bf02403009
Mazumdar, P.K. (1986) Dislocation mechanism based model for stage II fatigue crack propagation rate. Acta Metallurgica, 34 (12). 2487-2492 doi:10.1016/0001-6160(86)90151-3
ICHIKAWA, Masahiro, AKITA, Satoshi (1986) Reliability engineering approach to fatigue crack propagation rate. IV Examination of composite variability model for fatigue crack propagation rate. Journal of the Society of Materials Science, Japan, 35. 1272-1276 doi:10.2472/jsms.35.1272
Pavlushevich, A. (1986) Determination of the fatigue crack propagation rate. Strength of Materials, 18. 316-320 doi:10.1007/bf01523061
Gopkalo, A. P., Novikov, A. I. (2011) Mechanical loading and cyclic heating phase shift effect on fatigue crack propagation rate. Part 2. Fatigue crack propagation rate prediction. Strength of Materials, 43. 384-395 doi:10.1007/s11223-011-9307-8
ICHIKAWA, Masahiro, AKITA, Satoshi (1986) Examination of intra-specimen variability model for fatigue crack propagation rate. Journal of the Society of Materials Science, Japan, 35. 1177-1181 doi:10.2472/jsms.35.1177
Jones, B. F. (1982) The influence of crack depth on the fatigue crack propagation rate for a marine steel in seawater. Journal of Materials Science, 17. 499-507 doi:10.1007/bf00591484
Yokobori, A. Toshimitsu (2020) Holistic Approach on the Research of Yielding, Creep and Fatigue Crack Growth Rate of Metals Based on Simplified Model of Dislocation Group Dynamics. Metals, 10 (8) 1048pp. doi:10.3390/met10081048
Troshchenko, V. T., Yasnii, P. V., Pokrovskii, V. V. (1988) Fatigue crack propagation. Report 2. A crack propagation model. Strength of Materials, 20. 1287-1294 doi:10.1007/bf01531540
Runt, J., Gallagher, K. P. (1991) The influence of microstructure on fatigue crack propagation in polyoxymethylene. Journal of Materials Science, 26. 792-798 doi:10.1007/bf00588317
Krey, J., Friedrich, K., Schwalbe, K. -H. (1987) Fracture toughness and fatigue crack propagation of single fibre-bundle reinforced model composites. Journal of Materials Science Letters, 6 (7) 851-856 doi:10.1007/bf01729036
 
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