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Radiation forces on dielectric and absorbing particles studied via the finite-difference time-domain method
24
Citations
44
References
2009
Year
Numerical AnalysisRadiation ForceEngineeringWave OpticMetamaterialsElectromagnetic MetamaterialsRadiation Force ChangesOptical TrapsSolar Radiation PressureOptical PropertiesComputational ElectromagneticsRadiation ForcesBoundary Element MethodNanophotonicsElectromagnetic WaveMethod Of Fundamental SolutionPhysicsNumerical Method For Partial Differential EquationFinite-difference Time-domain MethodApplied PhysicsHigh-frequency ApproximationOptical TrappingDynamic MetamaterialsElectrical Insulation
Using the three dimensional finite-difference time-domain (FDTD) method, we calculate the radiation force from an incident plane wave on both dielectric and absorbing particles in the Lorentz-Mie regime via the Maxwell stress tensor approach. We find that the radiation force changes with particle permittivity, and we categorize the force into three regions: increasing, fluctuating, and constant. We discuss how particle size, shape, orientation and absorption affect the radiation force. A nanoscale solar sail is proposed based on our calculation. A detailed understanding of the optical force of a plane wave on particles in the Lorentz-Mie regime is fundamental for designing nanoscale solar sail systems and optical traps from a set of interfering plane waves.
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