In recent years, dielectrophoretic force has been used to manipulate colloids, inert particles,
and biological microparticles, such as red blood cells, white blood cells, platelets, cancer …

Abstract Insulator‐based dielectrophoresis (iDEP), also known as electrodeless DEP, has
become a well‐known dielectrophoretic technique, no longer viewed as a new …

Microfluidic devices have been extensively used to achieve precise transport and placement
of a variety of particles for numerous applications. A range of force fields have thus far been …

Dielectrophoresis is a non‐destructive, label‐free method to manipulate and separate (bio‐)
particles and macromolecules. The mechanism is based on the movement of polarizable …

Contactless dielectrophoresis (cDEP) devices are a new adaptation of dielectrophoresis in
which fluid electrodes, isolated from the main microfluidic channel by a thin membrane …

Organelle heterogeneity and inter-organelle contacts within a single cell contribute to the
limited sensitivity of current organelle separation techniques, thus hindering organelle …

Biotechnology, separation science, and clinical research are impacted by microfluidic
devices. Separation and manipulation of bioparticles such as DNA, protein and viruses are …

This review article presents an overview of the evolution of the field of insulator-based
dielectrophoresis (iDEP); in particular, it focuses on insulator-based electrokinetic (iEK) …

The ability to separate analytes with increasingly similar properties drives the field of
separation science. One way to achieve such separations is using trapping and streaming …

Foodborne pathogens pose one of the greatest challenges facing public health in the
modern day. One important pathogen, Listeria monocytogenes, is known to be challenging …