Publication | Open Access
Analysis of short range forces in opto-mechanical devices with a nanogap
25
Citations
24
References
2010
Year
Short Range ForcesEngineeringGradient Optical ForcesMechanical EngineeringOptomechanical SystemOptomechanicsMicro-optical ComponentOpto-mechanical DevicesMechanicsGuided-wave OpticNanometrologyNanomechanicsLevitated OptomechanicsMaterials SciencePhotonicsCasimir ForcePhysicsNanotechnologyCavity OptomechanicsGradient ForceMicrofabricationApplied PhysicsNano Electro Mechanical SystemOptical TrappingMechanics Of Materials
We employ the finite-difference time-domain method to calculate the dominant short range forces in optomechanical devices, Casimir and gradient optical forces. Numerical results are obtained for typical silicon optomechanical devices and are compared to metallic reference structures, taking into account geometric and frequency dispersion of silicon. Our results indicate that although a small gap is desirable for operating optomechanical devices, the Casimir force offsets the gradient force in strongly coupled optomechanical devices, which has to be taken into account in the design of optical force tunable devices.
| Year | Citations | |
|---|---|---|
Page 1
Page 1