Acoustofluidic separation of cells and particles is an emerging technology that integrates
acoustics and microfluidics. In the last decade, this technology has attracted significant …

Acoustic fields are ideal for micromanipulation, being biocompatible and with force gradients
approaching the scale of single cells. They have accordingly found use in a variety of …

The fabrication of functional tissues is essential for clinical applications such as disease
treatment and drug discovery. Recent studies have revealed that the mechanical …

The fusion of human organoids holds promising potential in modeling physiological and
pathological processes of tissue genesis and organogenesis. However, current fused …

Separation of nano/microparticles based on surface acoustic waves (SAWs) has shown
great promise for biological, chemical, and medical applications ranging from sample …

Three-dimensional (3D) culture of multicellular spheroids, offering a desirable biomimetic
microenvironment, is appropriate for recapitulating tissue cellular adhesive complexity and …

Microfluidic systems enable rapid diagnosis, screening and monitoring of diseases and
health conditions using small amounts of biological samples and reagents. Despite these …

Components in biomedical analysis tools that have direct contact with biological samples,
especially biohazardous materials, are ideally discarded after use to prevent cross …

The aging of the immune system drives systemic aging and the pathogenesis of age‐related
diseases. However, a significant knowledge gap remains in understanding immune‐driven …

Contactless manipulation of microparticles is demonstrated with single-beam acoustical
tweezers based on precursor swirling Rayleigh waves. These surface waves degenerate …