Acoustic tweezers are a versatile set of tools that use sound waves to manipulate
bioparticles ranging from nanometer-sized extracellular vesicles to millimeter-sized …

Cell rotation is one of the most important techniques for cell manipulation in modern
bioscience, as it not only permits cell observation from any arbitrary angle, but also simplifies …

Liquid manipulation is the foundation of most laboratory processes. For macroscale liquid
handling, both do-it-yourself and commercial robotic systems are available; however, for …

Optical and acoustic tweezers, despite operating on different physical principles, offer non-
contact manipulation of microscopic and mesoscopic objects, making them essential in …

Targeted drug delivery using microrobots manipulated by an external actuator has
significant potential to be a practical approach for wireless delivery of therapeutic agents to …

Acoustic micromanipulation technologies are a set of versatile tools enabling unparalleled
micromanipulation capabilities. Several characteristics put the acoustic micromanipulation …

The precise positioning and arrangement of cell spheroids and organoids are critical to
reconstructing complex tissue architecture for tissue engineering and regenerative …

Acoustic tweezing technologies are gaining significant attention from the scientific
communities due to their versatility and biocompatibility. This study presents acoustic …

Optical traps based on strongly confined electromagnetic fields at metal–dielectric interfaces
are far more efficient than conventional optical tweezers. Specifically, these near-field …

In recent years, several new methods have been developed to precisely manipulate small
particles using optical, electric, acoustic, magnetic, or fluidic fields. Automated fluidic …