Recent trends in X-ray-based characterization of nodular cast iron

被引：4

作者：

Andriollo T. ^{[1
]}

Xu C. ^{[1
]}

Zhang Y. ^{[1
]}

Tiedje N.S. ^{[1
]}

Hattel J. ^{[1
]}

机构：

[1] Department of Mechanical Engineering, Technical University of Denmark, Kongens Lyngby

来源：

Material Design and Processing Communications | 2021年 / 3卷 / 04期

关键词：

4D characterization; cast iron; diffraction; digital volume correlation; tomography; X-rays;

D O I：

10.1002/mdp2.212

中图分类号：

学科分类号：

摘要：

Through various examples, this short review presents the main X-ray-based techniques that are available to characterize nodular cast iron at the microstructural level. Emphasis is placed on the enormous potential offered by the recent developments in X-ray tomography, X-ray diffraction, and digital volume correlation, which allow collecting microstructural and micromechanical information in 4D (3D plus time) during both casting and subsequent mechanical loading. The goal is to demonstrate that for nodular cast iron, which has an inherently three-dimensional, composite microstructure, X-ray-based techniques provide some significant advantages over conventional microscopy. For this reason, these techniques can be instrumental in unveiling the mechanisms controlling both the formation of the microstructure as well as its micromechanical behavior during in-service loading, thus paving the way to the development of improved process–structure–property relations. © 2020 John Wiley & Sons, Ltd.

引用

共 76 条

[1]

Loper C.R.J., Processing and control of ductile iron, AFS Trans, 77, pp. 1-7, (1969)

[2]

Heine R.W., A model for specific volume and expansion and contraction behaviour of solidifying and cooling ductile and gray iron, AFS Trans, 96, pp. 413-422, (1988)

[3]

Skaland T., Grong O., Grong T., A model for the graphite formation in ductile cast iron. I. Inoculation mechanisms, Metall Trans a, 24A, pp. 2321-2345, (1993)

[4]

Pedersen K.M.K.M., Tiedje N., Nucleation and solidification of thin walled ductile iron—experiments and numerical simulation, Mater Sci Eng a, 413-414, pp. 358-362, (2006)

[5]

Rivera G., Boeri R., Sikora J., Revealing and characterising solidification structure of ductile cast iron, Mater Sci Technol, 18, pp. 691-697, (2002)

[6]

Onsoien M.I., Grong O., Gundersen O., Skaland T., A process model for the microstructure evolution in ductile cast iron: part I. The model, Metall Mater Trans A-Physical Metall Mater Sci, 30, pp. 1053-1068, (1999)

[7]

Lesoult G., Castro M., Lacaze J., Solidification of spheroidal graphite cast irons—I. Physical modelling, Acta Mater, 46, pp. 983-995, (1998)

[8]

Azeem M.A., Bjerre M.K., Atwood R.C., Tiedje N., Lee P.D., Synchrotron quantification of graphite nodule evolution during the solidification of cast iron, Acta Mater, 155, pp. 393-401, (2018)

[9]

Bellini C., Di Cocco V., Favaro G., Iacoviello F., Sorrentino L., Ductile cast irons: microstructure influence on the fatigue initiation mechanisms, Fatigue Fract, Eng Mater Struct, 42, pp. 1-11, (2019)

[10]

Iacoviello F., Di Cocco V., Bellini C., Fatigue crack propagation and damaging micromechanisms in ductile cast irons, Int J Fatigue, 124, pp. 48-54, (2019)

← 1 2 3 4 5 6 7 8 →