TY - JOUR
T1 - Vapor phase molecular epitaxy via self-assembly reactions
AU - Burtman, Vladimir
AU - Zelichenok, Alexander
AU - Yakimov, Aharon
AU - Yitzchaik, Shlomo
PY - 1999
Y1 - 1999
N2 - In this paper we introduce the Molecular Layer Epitaxy (MLE) method for epitaxial growth of covalently-linked organic multilayered structures. This method combines vapor phase and solution based multilayers assembly techniques in a unified concept. The MLE approach was proved fruitful by applying Chemical Vapor Deposition (CVD) techniques. The resulting MLE-derived low-dimensional multilayered structures exhibited high structural regularity and thermal stability. The above vapor phase assembly technique led to the formation of organic multiple quantum wells (OMQW) structures, where the solid-state electronic properties are governed by finite size effects. The various emitting species in the solid state were studied by modeling intermolecular interactions in solution. The strong tendency for π-aggregation in model compounds is evident in their crystal structure as well. This driving force for in-plane stacking also enhances the mobilities of electrons with-in this layer leading to unique electroluminescent properties The suggested MLE approach for multilayered thin film deposition should enable the future advance in areas of material science connected with nano-technologies, and better understanding of fundamental issues in quantum mechanic and solid state physics.
AB - In this paper we introduce the Molecular Layer Epitaxy (MLE) method for epitaxial growth of covalently-linked organic multilayered structures. This method combines vapor phase and solution based multilayers assembly techniques in a unified concept. The MLE approach was proved fruitful by applying Chemical Vapor Deposition (CVD) techniques. The resulting MLE-derived low-dimensional multilayered structures exhibited high structural regularity and thermal stability. The above vapor phase assembly technique led to the formation of organic multiple quantum wells (OMQW) structures, where the solid-state electronic properties are governed by finite size effects. The various emitting species in the solid state were studied by modeling intermolecular interactions in solution. The strong tendency for π-aggregation in model compounds is evident in their crystal structure as well. This driving force for in-plane stacking also enhances the mobilities of electrons with-in this layer leading to unique electroluminescent properties The suggested MLE approach for multilayered thin film deposition should enable the future advance in areas of material science connected with nano-technologies, and better understanding of fundamental issues in quantum mechanic and solid state physics.
UR - http://www.scopus.com/inward/record.url?scp=0039604576&partnerID=8YFLogxK
U2 - 10.1021/bk-1999-0735.ch025
DO - 10.1021/bk-1999-0735.ch025
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AN - SCOPUS:0039604576
SN - 0097-6156
VL - 735
SP - 399
EP - 419
JO - ACS Symposium Series
JF - ACS Symposium Series
ER -