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Theoretical study of the physical properties of semiconductor nano-structures[J]. PHYSICS, 2005, 34(11): 801-803.
Citation: Theoretical study of the physical properties of semiconductor nano-structures[J]. PHYSICS, 2005, 34(11): 801-803.

Theoretical study of the physical properties of semiconductor nano-structures

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  • Published Date: November 19, 2005
  • Semiconductor nano-structures are an important type of nano-material that will become the core of the next generation of micro-electronic and opto-electronic devices. There are various kinds of such nano-structures, for example, self-assembled quantum dots, nano crystallites and silicon clusters, which can be used to fabricate nano-electronic devices. Based on these nano-structures, our NNSFC funded project proposed four theories for studying their electronic structures, and found many new effects regarding their electronic states and physical properties. These theories include: one-dimensional quantum waveguide theory, effective-mass theory of isolated quantum dots and quantum wires, hole effective-mass theory for hetero structures, and empirical pseudopotential homo-junction models. The monograph Semiconductor Superlattice Physics presents a comprehensive introduction to the concepts, principles, theories, and experimental results of semiconductor superlattice physics, with a special summary of our group′s theoretical research results in this area.
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