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Many studies of creep in complex particle strengthened alloys have found unreasonably high values of the applied stress exponent n and the creep activation energy Q when the creep results are described by a power law relationship in which the creep rate is a function of the applied stress, for example, see Refs. 1-4. It is well established now that the high n and Q values can be reduced to more meaningful levels that reflect expected characteristics predicted by theories of glide or recovery controlled dislocation creep if the creep rate E is described in terms of an effective stress (514),

Very Slow Strain Rate Stress-Strain Behavior and Resisting Stress for Creep in a Nickel-Base Superalloy