Eight million people die of cancer each year and 90% of deaths are caused by systemic
disease. Circulating tumor cells (CTCs) contribute to the formation of metastases and thus …

We describe the design, microfabrication, and testing of a microfluidic device for the
separation of cancer cells based on dielectrophoresis. Cancer cells, specifically green …

The novelty of this study resides in a 6”‐wafer‐level microfabrication protocol for a
microdevice with a fluidic control system for the separation of circulating tumor cells (CTCs) …

Dielectrophoresis (DEP) is the phenomenon by which polarized particles in a non-uniform
electric field undergo translational motion, and can be used to direct the motion of …

Introduction: Dielectrophoresis (DEP) is based on polarization and bioparticle movement in
applied electric fields. Each type of cells has its own electrical properties within the DEP …

In recent years, microfluidic dielectrophoresis (DEP) devices, as one of the most promising
tools for cell and particle sorting and separation, are facing the bottleneck in the …

Microfluidic devices employing dielectrophoresis (DEP) have been widely studied and
applied in the manipulation and analysis of single cells. However, several pre-processing …

Biological sciences have reached the fundamental unit of life: the cell. Ever‐growing field of
Biological Microelectromechanical Systems (BioMEMSs) is providing new frontiers in both …

One significant obstacle in cancer treatment is tumor heterogeneity. Different subpopulations
within a tumor can respond differently to chemotherapy, resulting in resistance and …

As the amount of re‐sequencing genome data grows, minimizing the execution time of an
analysis is required. For this purpose, recent computing systems have been adopting both …