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The Construction Of Quantitative Inverse Pole Figures Using the Available Odf Data

Published online by Cambridge University Press:  06 March 2019

Charles Peng  and
Lu Ting
Charles Peng
Affiliation:
Armament Research Development and Engineering Center, Picatinny, NJ 07806
Lu Ting
Affiliation:
Armament Research Development and Engineering Center, Picatinny, NJ 07806
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Abstract

The ODF calculation is, to a large extent, responsible for the increased interest in texture analysis. Accurate pole figures and ODF plots can be routinely obtained in the laboratory from x-ray units equipped with precision controlling devices. For studies of the plastic flow behavior of polycrystalline aggregates, it is important to present the texture results in a manner readily usable for these analyses. For samples having a simple concentrated texture, the presentation of the data in terms of conventional pole figures and ODF plots is usually adequate. Additional work however is frequently needed when the analysis is involved with a more complex texture. A method is described for constructing the quantitative inverse pole figure using the available ODF data. Attention is focused on the construction of inverse pole figures for FCC and BCC metals. Examples are given of the plastic flow analyses for copper and tantalum which were produced by different cold-forming processes to yield a multitude of texture elements. The modification and rearrangement of the computer program necessary to accomplish this task will be discussed.

Type
Research Article
Information
Advances in X-Ray Analysis , Volume 37: Forty-Second Annual Conference on Applications of X-ray Analysis, August 2-6, 1993 , 1993 , pp. 465 - 471
Copyright
Copyright © International Centre for Diffraction Data 1993

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References

1. Feng, C. and Witt, F., “Pole Figure And Orientation Distribution Function Analyses Of FCC and BCC Metals”, Advances In X-ray Analysis, Vol. 35, Plenum Press, New York, 1992, p. 293–302.Google Scholar
2. Feng, C., Chatterjee, T. and Ting, L., “Material Characterization of Tantalum For Different Manufacturing Processes”, High Strain Rate Behavior of Metals and Alloys, Ed. Asfahani, Chen and Crowson, TMS Pub., Warrendale, PA, 1992, p. 45-58.Google Scholar
3. Witt, F., Feng, C., Lee, F. and Pearson, J., “Shaped Charge Liners: Influence Of Manufacturing Process And Material Selection On Penetration Performance”, Tech. Rept. ARSCD-TR 81022, Picatinny, NJ 07806-5000, Oct. 1981.Google Scholar
4. Feng, C., Wong, C., Witt, F. and Lee, F., “Metallurgical And Texture Analyses On Advanced Warheads”, Tech. Rept. ARSCD-TR 84014, Picatinny, NJ 07806-5000, July, 1984.Google Scholar
5. Hu, H., Cline, R. S. and Goodman, S. R., “Deformation Textures Of Metals”, 1965 Seminar, Recrystallization, Grain Growth And Textures, ASM Pub., Metals Park, OH, 1966, p. 295-367.Google Scholar
6. Haessner, F., “Formation Mechanisms And Structure Of The Rolling Texture Of FCC Metals, ibid, p. 386-92.Google Scholar
7. Perlwitz, H., Pitsch, W. and Lucke, K., “Determination Of The True Distribution Of Crystal Orientation In Cold Rolled Metals By Electron Diffraction”, ibid, p. 367-374.Google Scholar