Connecting electronic entropy to empirically accessible electronic properties in high temperature systems
Author(s)
Rinzler, Charles Cooper; Allanore, Antoine
DownloadRinzler_Allanore_Entropy_and_Electronic_Properties_07112016_FIGs_appended.pdf (868.6Kb)
OPEN_ACCESS_POLICY
Open Access Policy
Creative Commons Attribution-Noncommercial-Share Alike
Terms of use
Metadata
Show full item recordAbstract
A quantitative theoretical model connecting the thermopower and electronic entropy of molten systems is proposed, the validity of which is tested for semiconductors and metallic materials. The model accurately provides the entropy of mixing for molten semiconductors, as shown for the representative system Te–Tl. Predictions of the electronic entropy of fusion for compounds are in agreement with available data and offer a novel means to identify the correct electrical conductivity model when Hall measurements are not available. Electronic entropy for molten semiconductor and metallic systems is shown to reflect order in the molten and solid state. The model proves accurate at predicting the electronic state entropy contribution to the electronic entropy of mixing. Keywords: entropy; electronic entropy; thermopower; molten semiconductor
Date issued
2016-09Department
Massachusetts Institute of Technology. Department of Materials Science and EngineeringJournal
Philosophical Magazine
Publisher
Taylor & Francis
Citation
Rinzler, Charles C., and Antoine Allanore. “Connecting Electronic Entropy to Empirically Accessible Electronic Properties in High Temperature Systems.” Philosophical Magazine 96, 29 (September 2016): 3041–3053 © 2016 Informa UK limited, trading as Taylor & Francis group
Version: Author's final manuscript
ISSN
1478-6435
1478-6443