Regularities of Crystallographic Texture Formation in Austenitic Steel during Rolling and Tensile Testing

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Abstract

AISI304 steel samples cut from a forged rod were rolled at room temperature using longitudinal and cross schemes, after which they were subjected to various heat treatments with cooling from temperatures of the two-phase α+γ- and single-phase γ-regions to fix different phase compositions. The phase composition was studied, the volume fractions of austenite and α-martensite, crystallographic texture, structure and substructure of two-phase steel were determined, uniaxial tension tests of rolled sheets in different directions were carried out to evaluate the anisotropy of mechanical properties. It was found that the occurrence of γ → α phase transformations during deformation significantly depended on the rolling scheme and conditions, and the amount of remaining austenite varied within 15–29%. The reverse α → γ phase transformation initiated by annealing in the single-phase γ-region leads in the case of longitudinal rolling to the multiplication of the γ-phase texture components and the appearance of an additional orientation {113}<332>, while in the cross scheme the texture of deformed austenite is preserved. Quenching in the two-phase region at 700°C does not lead to a fundamental change in the austenite texture, but ensures the appearance of additional martensite components {110}<001> and {112}<111>. The texture features affect the anisotropy of elastic properties and yield strengths: the anisotropy of the Young's modulus of samples consisting entirely of austenite is higher (E_TD/E_RD = 1.67) compared to 1.25 for samples of quenched two-phase steel.

About the authors

O. A Krymskaya

National Research Nuclear University “MEPhI”

Author for correspondence.
Email: OAKrymskaya@mephi.ru
Moscow, Russia

M. G Isaenkova

National Research Nuclear University “MEPhI”

Email: MGIsaenkova@mephi.ru
Moscow, Russia

A. V Osintsev

National Research Nuclear University “MEPhI”

Email: OAKrymskaya@mephi.ru
Moscow, Russia

V. A Fesenko

National Research Nuclear University “MEPhI”

Email: OAKrymskaya@mephi.ru
Moscow, Russia

V. P Tyutin

National Research Nuclear University “MEPhI”

Email: OAKrymskaya@mephi.ru
Moscow, Russia

D. A Bednyakov

National Research Nuclear University “MEPhI”

Email: OAKrymskaya@mephi.ru
Moscow, Russia

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