Bioimaging enables the spatiotemporal visualization of biological processes at various
scales empowered by a range of different imaging modalities and contrast agents …

Modern imaging technologies are widely based on classical principles of light or
electromagnetic wave propagation. They can be remarkably sophisticated, with recent …

Point-scanning two-photon microscopy enables high-resolution imaging within scattering
specimens such as the mammalian brain, but sequential acquisition of voxels fundamentally …

Optical microscopes today have pushed the limits of speed, quality, and observable space in
biological specimens revolutionizing how we view life today. Further, specific labeling of …

Nonlinear optical microscopy provides elegant means for label-free imaging of biological
samples and condensed matter systems. The widespread areas of application could even …

Microscopic techniques based on nonlinear optical processes provide alternative ways to
visualize natural and artificial nanoscopic systems with minimum disturbance. In such …

Phase-imaging techniques extract the optical path length information of a scene, whereas
wavefront sensors provide the shape of an optical wavefront. Since these two applications …

Conventional methods for three-dimensional (3D) imaging frequently rely on voxel-by-voxel
data acquisition, which restricts the range of specimens in which they can be effectively …

Much of our progress in understanding microscale biology has been powered by advances
in microscopy. For instance, super-resolution microscopes allow the observation of …

A novel z‐scanning‐free epi‐detected super‐resolution two‐photon fluorescence
tomography (TPFT) technique enabling super‐resolution deeper tissue 3D imaging is …