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Despite the common wisdom that inertia does not contribute to microfluidic phenomena, recent work has shown a variety of useful effects that depend on fluid inertia for applications in enhanced mixing, particle separation, and bioparticle focusing. Due to the robust, fault-tolerant physical effects employed and high rates of operation, inertial microfluidic systems are poised to have a critical impact on high-throughput separation applications in environmental cleanup and physiological fluids processing, as well as bioparticle focusing applications in clinical diagnostics. In this review I will discuss the recent accelerated progress in developing prototype inertial microfluidic systems for a variety of applications and attempt to clarify the fundamental fluid dynamic effects that are being exploited. Finally, since this a nascent area of research, I will suggest some future promising directions exploiting fluid inertia on the microscale.
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Dino Di Carlo
California NanoSystems Institute
Lab on a Chip
University of California, Los Angeles
California NanoSystems Institute
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Dino Di Carlo (Thu,) studied this question.
synapsesocial.com/papers/69ddff8a1c2d3320f8b0be3d — DOI: https://doi.org/10.1039/b912547g