Modeling Duct Flow for Molecular Communication
arXiv:1711.01479 · doi:10.1109/GLOCOM.2018.8647632
Abstract
Active transport such as fluid flow is sought in molecular communication to extend coverage, improve reliability, and mitigate interference. Flow models are often over-simplified, assuming one-dimensional diffusion with constant drift. However, diffusion and flow are usually encountered in three-dimensional bounded environments where the flow is highly non-uniform such as in blood vessels or microfluidic channels. For a qualitative understanding of the relevant physical effects inherent to these channels, based on the Peclet number and the transmitter-receiver distance, we study when simplified models of uniform flow and advection-only transport are applicable. For these two regimes, analytical expressions for the channel impulse response are derived and validated by particle-based simulation. Furthermore, as advection-only transport is typically overlooked and hence not analyzed in the molecular communication literature, we evaluate the symbol error rate for exemplary on-off keying as performance metric.
arXiv comment6 pages, 5 figures, presented at IEEE Globecom 2018. This work has been submitted to the IEEE for possible publication
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- Neural Network based Distance Estimation for Branched Molecular Communication Systems