Preparation and thermoelectric properties of β-Ag2Se☆

Keywords

Seebeck coefficient, Materials science, Electrical resistivity and conductivity, Thermoelectric effect, Crystallite

References

• Electrical Properties of Ag 2 SeShin-ya Miyatani — 1958
• Measurement of Thermal Conductivity by Utilization of the Peltier Effect. II. Correction for Wire Radiation and Determination of Specimen Radiation EmissivityR. Simon, R. T. Bate, E. H. Lougher — 1960
• Band structure of indium antimonideE. O. Kane — 1957
• Maximum figure of merit of thermoelectric materialsR. Simon — 1961
• Energy band structure in p-type germanium and siliconE. O. Kane — 1956
• Energy Bands and Mobilities in Monatomic SemiconductorsW. Shockley, J. Bardeen — 1950
• Thermoelectric and Crystallographic Properties of Ag2SeJohn B. Conn, R. C. Taylor — 1960
• Deformation Potentials and Mobilities in Non-Polar CrystalsJ. Bardeen, W. Shockley — 1950
• Measurement of Thermal Conductivity by Utilization of the Peltier EffectT. C. Harman, J. H. Cahn, M.J. Logan — 1959
• Thermoelectric Figure of Merit of Two-Band SemiconductorsR. Simon — 1962

Cited by

• Pressure Dependence of the Alpha-Beta Transition Temperature in Silver SelenideCesar Chan, Kenneth C. Hover, Kevin J. Folliard — 1965
• Polymorphic transformations in Cu2Se, Ag2Se, AgCuSe and the role of partial cation-cation and anion-anion replacement in stabilizing their modificationsYu. G. Asadov, Y. I. Alıyev, A. G. Babaev — 2015
• Thermoelectric and transport properties of β-Ag2Se compoundsM. Ferhat, Jiro Nagao — 2000
• Syringe pump-assisted synthesis of water-soluble cubic structure Ag2Se nanocrystals by a cation-exchange reaction.Shang-Bing Wang, Bo Hu, Chang‐Chang Liu — 2008
• Electrical Properties of β‐Ag2Te and β‐Ag2Se from 4.2° to 300°KRichard Dalven, R. B. Gill — 1967
• Synthesis of β-Ag2Se from organo-selenium precursor and silver nitrate in DMF via simultaneous reduction of selenium and silver saltPawan K. Khanna, Narendra Singh, Shobhit Charan — 2006
• Thermal conductivity of silver selenide in the solid and liquid statesA. A. Aivazov, Alexander Okhotin, A. F. Gutsev — 1971
• Investigation of Polymorphic Transformations in Ag2SeYu. G. Asadov, G. A. Yabrailova — 1972
• Thickness dependence of structure in thin films of low-temperature silver selenideJohn R. Günter, P. Keusch — 1993
• One-Step Synthesis, Characterization and Optical Property of Graphene-Silver Selenide NanocompositesChen Guangyi, Wang De-jin, Liang Ce — 2012
• ELECTRONIC AND IONIC-CONDUCTION OF SOLID-SOLUTIONS AG2-XAUXSE (0 LESS-THAN-OR-EQUAL-TO X LESS-THAN-OR-EQUAL-TO 0.5)G.A. Wiegers — 1976
• Thickness dependence of the phase transition temperature in Ag2Se thin filmsV. Damodara Das, D. Karunakaran — 1990
• Phase formation and kinetics of the phase transition in Ag2Se thin filmsA.G. Abdullayev, R.B. Shafizade, E. S. Krupnikov — 1983
• Phase equilibria in the CdI2–Ag2Se systemV. Vassilev, V. Parvanova, Lilia Aljihmani — 2006
• An electron microscopic study of the polymorphic transformation in Ag2Se (I)R. de Ridder, S. Amelinckx — 1973
• The formation of (0 0 1) oriented Ag2Se films on amorphous and polycrystalline substrates via polymorphic-phase transitionGyörgy Sáfrán, L. Malicskó, O. Geszti — 1999
• Silver selenide nanoparticles: synthesis, characterisation and effect of preparation conditions under ultrasound radiationMaryam Jafari, Masoud Salavati‐Niasari, Azam Sobhani — 2013
• Orientation in Ag2Se polymorphic films produced by the reaction of silver films with seleniumY. Saito, Masanori Sato, Makoto Shiojiri — 1981
• Resistance Switching Characteristics of Solid Electrolyte Chalcogenide Ag2Se Nanoparticles for Flexible Nonvolatile Memory ApplicationsJaewon Jang, Feng Pan, Kyle Braam — 2012
• The Ag-Se (Silver-Selenium) systemİshak Karakaya, W. T. Thompson — 1990

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