Fourier-Bessel Series Modeling of Dielectrophoretic Bionanoparticle Transport: Principles and Applications PROJECT TITLE :Fourier-Bessel Series Modeling of Dielectrophoretic Bionanoparticle Transport: Principles and ApplicationsABSTRACT:Principles and applications are described for a Fourier-Bessel series model that predicts the transport of bionanoparticles driven by a dielectrophoretic (DEP) force and randomized by Brownian motion. The model is applicable for a dielectrophoretic force that spatially decays from the electrode array according to a reciprocal-law; that is, in the near field of a planar interdigitated array or in the far field where other long range forces assist DEP transport, e.g., ac electro-osmosis. Capabilities of the model are demonstrated for estimating and decomposing data typical of dielectrophoretic bionanoparticle collection experiments. An important approximation, for moderately strong DEP forces, is that a collection can largely be described by a single exponential profile with a square-law dependence on microdevice chamber height. Applications of the model demonstrate transformation and representation of time-dependent bionanoparticle transport in the frequency domain and prediction of a modulation bandwidth that concurs with experimental observations. Did you like this research project? To get this research project Guidelines, Training and Code... Click Here facebook twitter google+ linkedin stumble pinterest Nanofork for Single Cells Adhesion Measurement via ESEM-Nanomanipulator System 3-D Brownian Motion Simulator for High-Sensitivity Nanobiotechnological Applications