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 …

Holographic methods from optics can be adapted to acoustics for enabling novel
applications in particle manipulation or patterning by generating dynamic custom-tailored …

The ability to shape ultrasound fields is important for particle manipulation, medical
therapeutics, and imaging applications. If the amplitude and/or phase is spatially varied …

Acoustic holographic rendering in complete analogy with optical holography are useful for
various applications, ranging from multi-focal lensing, multiplexed sensing and synthesizing …

Holograms can shape wavefronts to produce arbitrary acoustic images. In this work, we
experimentally demonstrate how acoustic holograms can produce controlled thermal …

Acoustic holograms are a low cost method for generating arbitrary diffraction limited
pressure distributions in 3 dimensions. However, at present, the creation of complex fields …

Science-fiction movies portray volumetric systems that provide not only visual but also tactile
and audible three-dimensional (3D) content. Displays based on swept-volume surfaces …

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

Sound can levitate objects of different sizes and materials through air, water and tissue. This
allows us to manipulate cells, liquids, compounds or living things without touching or …

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