Coherent light scattered by tissues brings structural and dynamic information, at depth, that
standard imaging techniques cannot reach. Dynamics of cells or sub-cellular elements can …

Determining the structure and the internal dynamics of tissues is essential to understand
their functional organization. Microscopy allows for monitoring positions and trajectories of …

This review examines the biological physics of intracellular transport probed by the coherent
optics of dynamic light scattering from optically thick living tissues. Cells and their …

Dynamic multiple light scattering (DMLS) has found numerous applications, including soft
matter physics and biomedical optics. Yet biological tissues may have complex internal …

Dynamic light scattering analysis has been demonstrated recently to be a promising tool for
the assessment of structural changes taking place inside opaque tissue samples …

Quantitative measurement of diffusive and directional processes of intracellular structures is
not only critical in understanding cell mechanics and functions, but also has many …

We present a novel instrument for imaging the angular distributions of light backscattered by
biological cells and tissues. The intensities in different regions of the image are due to …

Exploration of nanoscale tissue structures is crucial in understanding biological processes.
Although novel optical microscopy methods have been developed to probe cellular features …

Phase objects can become visible by slightly defocusing an optical microscope, a technique
seldom used as a useful tool. We revisited the theory of defocusing and apply it to our optical …

Visualization of subcellular structures and their temporal evolution is of utmost importance to
understand a vast range of biological processes. Optical microscopy is the method of choice …