Physical Review Letters · 2003 · 147 citations · 13 references
Natural SciencesMaterials SciencePhysicsNanotechnologyOpticsSemiconductor MaterialsNanomechanical PropertiesNanomechanicsNanoscale MaterialsOptical Properties Of SemiconductorsSemiconductor NanomaterialsSemiconductor PhysicsExciton ConfinementExcitonsMaxwell Stress TensorNanoparticlesNanoscale Confinement EffectsResonanceSemiconductor NanostructuresStress Tensor
We theoretically study the mechanical interaction between radiation and a semiconductor nanoparticle, based on a microscopic model of confined excitons. The exerted force is calculated by using the Maxwell stress tensor expressed in terms of the microscopic response field. The numerical demonstrations clarify the following: (1) The enhancement of the force by using electronic resonance is remarkable for a particle with a radius of less than 100 nm for semiconductor materials. (2) The spectral peak position of the exerted force is considerably sensitive to nanoscale-size changes which would be useful for highly accurate size-selective manipulation.
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Observation of a single-beam gradient force optical trap for dielectric particles
A. Ashkin, J. M. Dziedzic, J. E. Bjorkholm et al. · Optics Letters · 1986 · 7K citations
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Lukáš Novotný, Randy X. Bian, Xiaohui Xie · Physical Review Letters · 1997 · 1K citations
Fundamental Systems in Quantum Optics
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Natural Sciences, Physics, Optics +13