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Temperature Coefficient of Electrical Resistance of Simple Liquid Metals

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High Temperature Aims and scope

Abstract

The temperature coefficient of electrical resistance has for the first time been numerically determined for 15 simple liquid metals in view of the third-order term with respect to the pseudopotential of electron–ion interaction. The perturbation theory series for electrical resistance is constructed by the asymptotic expansion method. For all metals, the third-order term turns out to be positive and ranges from several percent to several tens of percent of the second-order term. Its inclusion improves considerably the agreement between the theoretical and experimental values of the temperature coefficient.

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Shvets, V.T. Temperature Coefficient of Electrical Resistance of Simple Liquid Metals. High Temperature 39, 49–53 (2001). https://doi.org/10.1023/A:1004166429609

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