Reprint

Particles Separation in Microfluidic Devices

Edited by
July 2020
230 pages
  • ISBN978-3-03936-694-1 (Hardback)
  • ISBN978-3-03936-695-8 (PDF)

This book is a reprint of the Special Issue Particles Separation in Microfluidic Devices that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

Microfluidic platforms are increasingly being used for separating a wide variety of particles based on their physical and chemical properties. In the past two decades, many practical applications have been found in chemical and biological sciences, including single cell analysis, clinical diagnostics, regenerative medicine, nanomaterials synthesis, environmental monitoring, etc. In this Special Issue, we invited contributions to report state-of-the art developments in the fields of micro- and nanofluidic separation, fractionation, sorting, and purification of all classes of particles, including, but not limited to, active devices using electric, magnetic, optical, and acoustic forces; passive devices using geometries and hydrodynamic effects at the micro/nanoscale; confined and open platforms; label-based and label-free technology; and separation of bioparticles (including blood cells), circulating tumor cells, live/dead cells, exosomes, DNA, and non-bioparticles, including polymeric or inorganic micro- and nanoparticles, droplets, bubbles, etc. Practical devices that demonstrate capabilities to solve real-world problems were of particular interest.

Format
  • Hardback
License
© 2020 by the authors; CC BY-NC-ND license
Keywords
circulating tumor cell; positive isolation; negative isolation; lateral magnetophoresis; red blood cells; deterministic lateral displacement; trajectories; row shift; microfluidic device; particle separation; hydrodymanics; microchannel; cell sorting; in-flow decantation; self-sheath generation; microfluidics; sheath-free flow focusing; plasma separation; particle enrichment; acoustic differential extraction; feedback; frequency; optofluidics; optical force; photothermal effect; optical manipulation; optical fiber sensors; dielectrophoresis; focusing; microchannel; microfluidics; microparticles; modeling; inertial micro-fluidics; inertial focusing; lab on a chip; micro-fluidics; vortex technology; microfluidics; deterministic lateral displacement; Reynolds number; particle image velocimetry; size-dependent fractionation; microparticles; paramagnetic; magnetic field; direct numerical simulation; curved channel; low Reynolds number; single nucleotide polymorphism; dielectrophoresis; spectroscopy; bioelectronics; microfluidics; particle separation; Interdigitated transducer electrodes; dielectrophoresis; microfluidics; microchannel; separation; n/a