Surface Tension Driven Flow in Glass Melts and Model Fluids

Abstract

Experiments on surface tension driven flow in nominally cylindrical columns of a glass melt and silicone oils are described and results are presented. Predictions from an appropriate theoretical model are included. Conclusive proof has been obtained for the dominance of surface tension driven flow in these systems under the conditions of the present investigation.

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Acknowledgment

This work was supported by the Materials Processing in Space Program Office of the National Aeronautics and Space Administration through a contract (NAS8-32944) from the Marshall Space Flight Center to Clarkson College of Technology. We are also grateful to the Dow-Corning Corporation for providing us with free samples of the DC-200 silicone oils for the experiments.

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McNeil, T.J., Cole, R. & Subramanian, R.S. Surface Tension Driven Flow in Glass Melts and Model Fluids. MRS Online Proceedings Library 9, 289–299 (1981). https://doi.org/10.1557/PROC-9-289

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