Optical imaging is arguably the most effective tool to visualize living cells with high
spatiotemporal resolution and in a nearly noninvasive manner. Driven by this capability …

The ability to rapidly assay morphological and intracellular molecular variations within large
heterogeneous populations of cells is essential for understanding and exploiting cellular …

Optical time-stretch imaging enables the continuous capture of non-repetitive events in real
time at a line-scan rate of tens of MHz—a distinct advantage for the ultrafast dynamics …

Retrieval of the optical phase information from measurement of intensity is of a high interest
because this would facilitate simple and cost-efficient techniques and devices. In scientific …

Inspiring development in optical imaging enables great applications in the science and
engineering industry, especially in the medical imaging area. Photonic time-stretch imaging …

Breathtaking innovations in optical imaging have opened new exciting avenues for science,
industry, and medicine over the last few decades. One of such innovations is optical time …

Accelerating imaging speed in optical microscopy is often realized at the expense of image
contrast, image resolution and detection sensitivity–a common predicament for advancing …

Quantitative phase imaging (QPI) has been proven to be a powerful tool for label-free
characterization of biological specimens. However, the imaging speed, largely limited by the …

Recovery of optical phases using direct intensity detection methods is an ill-posed problem
and some prior information is required to regularize it. In the case of multi-mode fibers, the …

A novel approach to achieving ultrafast three-dimensional (3-D) imaging based on space-to-
wavelength-to-time mapping and short-time Fourier transform (STFT) is proposed and …