Effect of tempering temperature and frequency on fatigue crack propagation in 0.2% carbon alloy steel
Source abstract
Abstract
Fatigue crack growth (FCG) has been investigated in air, under high and low frequencies for lower and upper tempering temperatures, on a mining chain steel. The effect of frequency over the range tested is revealed to be not negligible in the near threshold region of ΔK I . For growth rates greater than 10−5 mm/cycle, FCG rates for tests conducted at 0.6 Hz were up to 1.5 higher than FCG rates for tests conducted at 78 Hz. Tempering at 500°C produced slightly lower early stage growth rates than tempering at 200°C where the remaining residual stresses still contribute in affecting the near threshold region, for the two test frequencies. Otherwise at higher values of ΔK I , the FCG curves were coincident. Using an empirical relationship between the constants of the Paris-Erdogan law, a correlation is established for this steel taking into account both effects of frequency and tempering. The obtained results are compared to analyzed data from literature for a high tensile steel and a linear relationship between the parameters C and n is deduced for both materials.
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Research context
OpenAlex topics: Fatigue and fracture mechanics · Fire effects on concrete materials · Ultrasonics and Acoustic Wave Propagation
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