DocumentCode :
252708
Title :
Epitaxial growth controlled tailoring of Metal-Insulator (MI) Transition properties of rare earth correlated oxides
Author :
Iqbal, Azlan ; Khan, Shoab Ahmed ; Rahman, N.U. ; Faraz, T.
Author_Institution :
Dept. Electr. & Electron. Eng., BRAC Univ., Dhaka, Bangladesh
fYear :
2014
fDate :
13-16 April 2014
Firstpage :
168
Lastpage :
171
Abstract :
Strongly correlated electron devices using Metal Insulator Transition (MIT) Oxides are prospective alternatives along the new generation of high speed devices based on novel mechanisms. Taking the advantages of correlated electrons which are capable of forming a variety of electronic phases, MIT Oxides and Phase Change Materials (PCM) are treated as the frontiers of emergent device research. With the prospect of downsizing devices to the nanoscale regime, benefits over conventional semiconductor devices are attained. Aided by recent advances in fabrication technology, considerable improvements have been achieved to tailor the Metal-Insulator (MI) transition properties of MIT Oxides. In this study, the tailoring of MI transition properties for a particular group of MIT Oxides, namely the transition metal perovskite oxides of RNiO3 family are studied on the epitaxial platform. Finally, antiferromagnetism characteristics and anonymous resistivity inherent within those oxides are studied.
Keywords :
antiferromagnetic materials; doping; epitaxial growth; europium compounds; lanthanum compounds; metal-insulator transition; neodymium compounds; phase change materials; praseodymium compounds; samarium compounds; strongly correlated electron systems; EuNiO3; LaNiO3; MIT Oxides; NdNiO3; PrNiO3; RNiO3 family; SmNiO3; anonymous resistivity; antiferromagnetism characteristics; device downsizing; electronic phases; epitaxial growth; epitaxial platform; fabrication technology; high speed devices; metal insulator transition oxides; metal-insulator transition properties; nanoscale regime; phase change materials; rare earth correlated oxides; semiconductor devices; strongly correlated electron devices; transition metal perovskite oxides; Conductivity; Doping; Epitaxial growth; Strain; Substrates; Antiferromagnetism; Correlated Electron Devices; Metal Insulator Transition (MIT) Oxides; Metal-Insulator (MI) Transition;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Nano/Micro Engineered and Molecular Systems (NEMS), 2014 9th IEEE International Conference on
Conference_Location :
Waikiki Beach, HI
Type :
conf
DOI :
10.1109/NEMS.2014.6908783
Filename :
6908783
Link To Document :
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