Microfluidic cell cultures are ideally positioned to become the next generation of in vitro
diagnostic tools for biomedical research, where key biological processes such as cell …

Rapid and timely diagnosis of infectious diseases is a critical determinant of clinical
outcomes and general public health. For the detection of various pathogens, microfluidics …

This review will highlight the potential benefits that can be leveraged by using flow chemistry
to allow gases to be used in research in a safer and more efficient way. An overview of the …

Microfluidic devices as translational research tools provide a potential alternative to animal
experiments due to their ability to mimic physiological parameters. Several approaches that …

Evaporation, pervaporation, and forward osmosis are processes leading to a mass transfer
of solvent across an interface: gas/liquid for evaporation and solid/liquid (membrane) for …

During tissue morphogenesis and homeostasis, cells experience various signals in their
environments, including gradients of physical and chemical cues. Spatial and temporal …

In comparison to traditional in vitro cell culture in Petri dishes or well plates, cell culture in
microfluidic‐based devices enables better control over chemical and physical environments …

Microfluidic technology provides precise, controlled-environment, cost-effective, compact,
integrated, and high-throughput microsystems that are promising substitutes for …

Hydrodynamic phenomena are ubiquitous in living organisms and can be used to
manipulate cells or emulate physiological microenvironments experienced in vivo …

The combination of microfabrication-based technologies with cell biology has laid the
foundation for the development of advanced in vitro diagnostic systems capable of analyzing …