Non-invasively focusing light into strongly scattering media, such as biological tissue, is
highly desirable but challenging. Recently, ultrasonically guided wavefront-shaping …

Focusing light deep inside living tissue has not been achieved despite its promise to play a
central role in biomedical imaging, optical manipulation and therapy. To address this …

The field of acousto-optical tomography (AOT) for medical applications began in the 1990s
and has since developed multiple techniques for the detection of ultrasound-modulated …

Wavefront shaping based on digital optical phase conjugation (DOPC) focuses light through
or inside scattering media, but the low speed of DOPC prevents it from being applied to …

This review describes the current state‐of‐the‐art of photorefractive polymers for
holography. The analysis of this rich field begins with a brief historical perspective followed …

The imaging depth of ballistic optical imaging technologies is limited by light scattering. To
study the effects of scattering on optical-resolution photoacoustic microscopy (OR-PAM), the …

Abstract The Time-Reversed Ultrasound-Encoded (TRUE) light technique enables
noninvasive focusing deep inside scattering media. However, the time-reversal procedure …

Reviews the properties and applications of photo-elastic, acousto-optic, magneto-optic,
electro-optic, and photorefractive materials This book deals with the basic physical …

Optical wavefront shaping (WFS) has been demonstrated as a powerful tool for focusing
light in opaque scattering media. Photoacoustic (PA)‐guided WFS, in particular, has raised a …

Scattering dominates light propagation in biological tissue, and therefore restricts both
resolution and penetration depth in optical imaging within thick tissue. As photons travel into …