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Overview of Containerless Processing Technologies*

Published online by Cambridge University Press:  15 February 2011

M. Barmatz*
Affiliation:
Jet Propulsion Laboratory, California Institute of Technology, Pasadena, CA 91109
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Abstract

In the near future, a large segment of the scientific community will have an opportunity to perform materials processing experiments on the Space Shuttle in the reduced gravity environment of space. Many of these experiments will require containerless processing techniques that provide manipulation and control of weightless (molten) materials without physical contact with container walls or other holding devices. A variety of containerless processing technologies are now being developed for space and ground-based materials processing facilities. The utilization of air jets or high intensity acoustic, electromagnetic or electrostatic fields can produce forces that support and manipulate materials. Most of the present containerless research is directed toward the development of high temperature systems capable of melting and resolidifying materials. This paper will review the materials processing capabilities and level of developmental progress of each technique. An introduction to available NASA test facilities will also be given.

Type
Research Article
Copyright
Copyright © Materials Research Society 1982

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References

REFERENCES

1.Naumann, R. J. and Herring, H. W., Materials in Space: Early Experiments, NASA SP-443 (1980).Google Scholar
2.Materials Processing in Space Program. Handbook for Participants, prepared by ORI, Inc. for NASA Headquarters (1980).Google Scholar
3.Wang, T. G., Elleman, D. D., Jacobi, N. and Croonquist, A. P., SPAR VI Experiment 76–20 (1981).Google Scholar
4.Lacy, L. L., Robinson, M. B. and Rathz, T. J., to be published in Journal of Crystal Growth.Google Scholar
5.Steinberg, J., Lord, A. E. Jr., Lacy, L. L. and Johnson, J., Appl. Phys. Let., 38, 135 (1981).Google Scholar
6.Lee, Mark C., Private Communication; also see paper in this session by Mark C. Lee, J. Kendall, D. Elleman, Won-Kyu Rhim, R. Helizon, C. Youngberg, I-an Feng, and Taylor Wang.Google Scholar
7.Kendall, J., Private Communication.Google Scholar
8. The development of this concept was primarily carried out by Intersonics, Inc., Northbrook, IL.Google Scholar
9.Whymark, R., Rey, C., Yearnd, J. and Broz, R., AIAA Aerospace Sciences Meeting, paper #79–0370 (1979).Google Scholar
10.Wang, T. G., Saffren, M. M. and Elleman, D. D., AIAA paper # 74–155 (1974).Google Scholar
11.Rozenberg, L. D., Ed. Sources of High-Intensity Ultrasound, Vol. I, Plenum Press, 1969; and M. C. Lee and I-An Feng, to be published in J. of Appl. Phys.Google Scholar
12.Lee, M. C., Private Communication; also see paper in this session by Ainslie T. Young, Mark C. Lee, I-an Feng, Daniel D. Elleman, and Taylor Wang.Google Scholar
13.Allen, C. H. and Rudnick, I., JASA 19, 857 (1947).Google Scholar
14.Gammell, P., Private Communication.Google Scholar
15.Trinh, E., Private Communication.Google Scholar
16.Bunshah, R. F., Techniaues of Metals Research, Interscience, Vol. 1, Part 2, Chapter 18, Ed. R. F. Bunshah (1968).Google Scholar
17.Okress, E. C., Wroughton, D. M., Comenetz, G., Brace, P. H. and Kelly, J. C. R., J. of Appl. Phys., 23, 545 (1952.).Google Scholar
18.Fromm, E. and Jehn, H., Brit. J. Appl. Phys., 653 (1965).Google Scholar
19.Oran, W. A., to be published.Google Scholar
20.Wouch, G., Frost, R. T., Pinto, N. P., Keith, G. H. and Lord, A. E. Jr., Nature 274, 235 (1978).Google Scholar
21.Elleman, D. D., Private Communication; see also paper in poster session by W. K. Rhim, M. Saffren, and D. D. Elleman.Google Scholar
22.Winborne, D. A., Nordine, P. C., Rosner, D. E. and Marley, N. F., Met. Trans. 7B, 711 (1976).Google Scholar
23.Oran, W. A. and Berge, L. H., to be published.Google Scholar
24.Nordine, P. C. and Atkins, R. M., to be published in RSI.Google Scholar