Optical imaging through or inside scattering media, such as multimode fiber and biological
tissues, has a significant impact in biomedicine yet is considered challenging due to the …

Light scattering inside disordered media poses a significant challenge to achieve deep
depth and high resolution simultaneously in biomedical optical imaging. Wavefront shaping …

Photoacoustic imaging (PAI) is an emerging label-free and non-invasive modality for
imaging biological tissues. PAI has been implemented in different configurations, one of …

Ghost imaging captures 2D images with a point detector instead of an array sensor. It could
therefore solve the challenge of building cameras in wave bands where sensors are difficult …

In this research, we present results of simulated annealing (SA), a heuristic optimization
algorithm, for focusing light through a turbid medium. Performance of the algorithm on phase …

Wavefront shaping has become a powerful tool for controlling light through scattering media
and enable the focusing and imaging of diffusive light. However, when facing with strong …

Galvo scanners are popular devices for fast transversal scanning. A triangular signal is
usually employed to drive galvo scanners at scanning rates close to the inverse of their …

Recent advances in iterative wavefront shaping (WFS) techniques have made it possible to
manipulate the light focusing and transport in scattering media. To improve the optimization …

The focusing of light through turbid media like biological tissues is strongly hindered by the
scattering of light which limits its safe practice and application in medicine. In order to control …

The dissertation describes a series of studies developing depth-sensitive optical
spectroscopy assisted by wavefront shaping and radiofrequency tagging. Depth-sensitive …