Internal Stresses and their Sources in BCC and FCC Steels

Abstract:

The present work summarizes and presents separate results obtained by the authors when investigating mesoscopic and microscopic internal stresses formed under the conditions of thermal and mechanical treatment of martensitic, pearlitic and austenitic steels. Internal stresses were investigated using the method based on the analysis of bend extinction contours. The results obtained on industrial steels were presented. The sources were described and examples of internal stresses induced by these sources were given. The nature of bending-torsion of the crystal lattice depending on the averaging volume was determined. It has been shown that in martensitic steels along with the increase in the averaging volume (carbide particle → separate martensitic lath → martensite packet→ martensitic plate → grain) the amplitude of bending-torsion of the crystal lattice decreases. The nature of distortions also changes. At large amplitudes and low volumes of averaging they are completely or partly elastic, at large volumes of averaging they are completely plastic. Thereby, distortions are fully driven by the excess dislocation density.

• Periodical: Solid State Phenomena (Volume 303)
• Pages: 128-142
• DOI: https://doi.org/10.4028/www.scientific.net/SSP.303.128
• Online since: May 2020
• Authors: N.A. Koneva, Natalya A. Popova*, Elena L. Nikonenko
• Keywords: BCC Steels, FCC Steels, Internal Stresses, Mechanical Treatment

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