Electronic Structure of Semiconductor Nanocrystals
By J. Li, L. Wang, Shihao Wei. 2006
180 citations recorded by the source corpus.
View Paper: https://www.semanticscholar.org/paper/084e9cb3d162c0a3b0066e2706a2778f4c960702
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
Citations in the corpus
- Size-dependent valence and conduction band-edge energies of semiconductor nanocrystals. (2011, background): “result provide information on mean particle size,(2) ensemble distribution width,(3) particle concentration,(4,5) and the electronic structure within the conduction and valence bands.(6,7)”
- Quantum dot plasmonics: from weak to strong coupling (2019, background): “When the size of a semiconductor material is decreased below its “natural” Bohr radius, the electron and hole are effectively confined, making the exciton energy larger than in the bulk material and dependent on size [13, 14].”
- Photoinduced electron transfer from semiconductor quantum dots to metal oxide nanoparticles (2010, background): “Of these three terms, only ΔGelectronic can be measured experimentally, where electron affinities for bulk semiconductors are established (21) and those of quantized CdSe nanoparticles can be estimated using the effective mass approximation (22).”
- Quantum Dots and Their Multimodal Applications: A Review (2010, background): “Such a discrepancy was explained, theoretically and experimentally, in terms of increase of distance between optically active state and optically forbidden ground exciton state with decreasing the size of Qdots [117,118].”
- Schottky-quantum dot photovoltaics for efficient infrared power conversion (2008, background): “Thus the two quantum numbers n and l uniquely define the allowable carrier energies; the effective mass incorporates the effects of the periodic potential into a single term, assuming a parabolic band structure [68].”