Dielectrophoresis, the induced motion of polarisable particles in a nonuniform electric field, has been
proven as a versatile mechanism to transport, accumulate, separate and characterise micro/nano scale
bioparticles in microfluidic systems. The integration of DEP systems into the microfluidics enables the
inexpensive, fast, highly sensitive, highly selective and label-free detection and analysis of target bioparticles.
This review provides an in-depth overview of state-of-the-art dielectrophoretic (DEP) platforms
integrated into microfluidics aimed towards different biomedical applications. It classifies the current
DEP systems in terms of different microelectrode configurations and operating strategies devised to generate
and employ DEP forces in such processes, and compares the features of each approach. Finally, it
suggests the future trends and potential applications of DEP systems in single cell analysis, stem cell
research, establishing novel devices, and realising fully DEP-activated lab-on-a-chip systems.