Acoustofluidic technologies utilize acoustic waves to manipulate fluids and particles within
fluids, all in a contact-free and biocompatible manner. Over the past decade, acoustofluidic …

Abstract Machine learning (ML) has revolutionized robotics by enhancing perception,
adaptability, decision-making and more, enabling robots to work in complex scenarios …

Spatiotemporally controllable droplet manipulation is essential in diverse applications,
ranging from thermal management to microfluidics and water harvesting. Despite …

Acoustic waves exert forces when they interact with matter. Sha** ultrasound fields
precisely in 3D thus allows control over the force landscape and should permit particulates …

Acoustic tweezers can control target movement through the momentum interaction between
an acoustic wave and an object. This technology has advantages over optical tweezers for …

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

Acoustic tweezers use sound radiation forces to manipulate matter without contact. They
provide unique characteristics compared with the more established optical tweezers, such …

Acoustic microfluidic devices are powerful tools that use sound waves to manipulate micro-
or nanoscale objects or fluids in analytical chemistry and biomedicine. Their simple device …

The ability to physically manipulate specific cells is critical for the fields of biomedicine,
synthetic biology, and living materials. Ultrasound has the ability to manipulate cells with …

Holographic techniques are fundamental to applications such as volumetric displays, high-
density data storage and optical tweezers that require spatial control of intricate optical or …