Explore how vortex sorting in microcavities is transforming cell separation technology, enabling precise isolation of rare cells like circulating tumor cells with incredible efficiency.
Explore how biomaterials-based microfluidics is transforming tissue engineering through precise control of cellular environments and advanced 3D bioprinting technologies.
Discover how 3D-printed sheath flow SERS technology combines microfluidics and surface-enhanced Raman spectroscopy for revolutionary chemical detection capabilities.
Explore how negative dielectrophoresis and bipolar electrodes are transforming single-cell manipulation through Faradaic ion enrichment and depletion.
Exploring how macro- and microscale fluid flow systems influence endothelial cell biology and vascular health.
Explore the groundbreaking integration of CMOS microsensors with open microfluidic systems and how it's transforming biological research and drug development.
Discover how scientists use C. elegans worms in microfluidic chips to study Parkinson's disease, enabling high-throughput drug screening and real-time observation of neurodegeneration.
Discover how dielectrophoresis and microfluidics are revolutionizing cell sorting with a gentle, continuous, and precise method for isolating rare cells in medicine and research.
Exploring how microchip technologies are transforming single-cell analysis and revolutionizing our understanding of cellular biology.