Red blood cells (RBCs) possess a unique capacity for undergoing cellular deformation to
navigate across various human microcirculation vessels, enabling them to pass through …

The application of acoustic and optical waves to exert non-contact forces on microscopic
and mesoscopic objects has grown considerably in importance in the past few decades …

Despite increasing demand in the manipulation of nanoscale objects for next generation
biological and industrial processes, there is a lack of methods for reliable separation …

Micrometer-scale acoustic waves are highly useful for refined optomechanical and
acoustofluidic manipulation, where these fields are spatially localized along the transducer …

Contactless microscale tweezers are highly effective tools for manipulating, patterning, and
assembling bioparticles. However, current tweezers are limited in their ability to …

Separating plasma from whole blood is an important sample processing technique required
for fundamental biomedical research, medical diagnostics, and therapeutic applications …

Acoustic streaming has emerged as a promising technique for refined microscale
manipulation, where strong rotational flow can give rise to particle and cell capture. In …

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

The numerical prediction of acoustofluidic particle motion is of great help for the design, the
analysis, and the physical understanding of acoustofluidic devices as it allows for a simple …

Oxidative stress is one of the key factors that leads to red blood cells (RBCs) aging, and
impairs their biomechanics and oxygen delivery. It occurs during numerous pathological …