Modelling Crystallographic Texture Evaluation and Non-Destructive Measurement of Magnetic Anisotropy using an Electromagnetic Sensor in Interstitial Free (If) Steels

M. Jolfaei, Jun Liu, Lei Zhou, F. van den Berg, C. Davis
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Abstract

Interstitial free (IF) steels are popular in the automotive industry for applications requiring good ductility (formability), strength and a superior surface quality. Magnetic anisotropy measurement can be used to gain information about the crystallographic texture, which is an important property controlling strength and especially the formability, for example rvalues. The crystallographic texture is generated during rolling and subsequent recrystallisation during the annealing heat treatment. A set of IF steel specimens, at different states of recrystallisation (cold rolled, partially recrystallised and fully recrystallised) and accordingly different texture components have been used to investigate measurement and prediction of magnetic anisotropy. A finite element microstructure model that considers crystallographic texture based on magnetic domain theory has been used for the evaluation of magnetic anisotropy in polycrystalline steels. In addition, a laboratory based electromagnetic (EM) U shaped sensor has been proposed to determine the magnetic anisotropy in IF samples by measuring at angles varying from 0° to 90°, in steps of 15°, with respect to the rolling direction. Kernel Average Misorientation (KAM) values from Electron Back Scattered Diffraction (EBSD) characterisation of the samples has been used to evaluate the recrystallisation fraction and correlate that to the texture.
用电磁传感器模拟无间隙钢的晶体织构评价和磁各向异性无损测量
无间隙(IF)钢在汽车工业中很受欢迎,用于要求良好的延展性(成形性)、强度和卓越的表面质量。磁各向异性测量可以获得有关晶体织构的信息,这是控制强度特别是成形性的重要特性,例如值。结晶织构是在轧制过程中产生的,随后在退火热处理过程中再结晶。采用一组处于不同再结晶状态(冷轧、部分再结晶和完全再结晶)和相应的不同织构成分的中频钢试样,研究了磁各向异性的测量和预测。基于磁畴理论建立了考虑晶体织构的有限元显微组织模型,用于评价多晶钢的磁各向异性。此外,还提出了一种基于实验室的电磁(EM) U形传感器,通过测量相对于轧制方向的0°到90°的角度,以15°的步长来确定中频样品的磁各向异性。从电子背散射衍射(EBSD)表征样品的核平均取向偏差(KAM)值被用来评估再结晶分数,并将其与织构相关联。
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