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Thermoelectric investigation of solidification of lead I. Pure lead

A technique has been developed to measure very small temperature changes at moving or stationary solid/liquid interfaces in metal wires. The method utilises the temperature-dependent Seebeck potential generated across such interfaces. The present work is novel in that, for the first time, strain eff...

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Published in:Journal of crystal growth 1991-06, Vol.112 (2), p.554-562
Main Authors: Rodway, G.H., Hunt, J.D.
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Language:English
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container_title Journal of crystal growth
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description A technique has been developed to measure very small temperature changes at moving or stationary solid/liquid interfaces in metal wires. The method utilises the temperature-dependent Seebeck potential generated across such interfaces. The present work is novel in that, for the first time, strain effects, which can adversely affect measured results, have been eliminated by the use of unconstrained specimens, and that techniques for producing very fine wire diameter specimens have been developed, greatly extending the velocity range over which kinetic measurements can be made. Undercooling measurements for the planar interface velocity range 0–10000 μm/s were thus made, in high purity lead, yielding linear kinetic coefficients for melting (33±6 cm / s·° C) and freezing (28±8 cm/s·°C) which were not compatible with the classical theory of non-faceted growth, but were in good quantitative agreement with the results of recent molecular dynamics simulations, which indicate that the atomic attachment/ detachment process is athermal.
doi_str_mv 10.1016/0022-0248(91)90334-2
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source Backfile Package - Materials Science [YMS]; Backfile Package - Physics General (Legacy) [YPA]
subjects Applied sciences
Cross-disciplinary physics: materials science
rheology
Exact sciences and technology
Materials science
Metals. Metallurgy
Methods of crystal growth
physics of crystal growth
Physics
Theory and models of crystal growth
physics of crystal growth, crystal morphology and orientation
title Thermoelectric investigation of solidification of lead I. Pure lead
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