Deep tissue imaging using two-photon fluorescence (TPF) techniques have revolutionized
the optical imaging community by providing in depth molecular information at the single-cell …

The application of two-photon excitation to fluorescence microscopy has become a powerful
tool for studying biological function in live tissue and offers many advantages over …

Two-photon fluorescence microscopy enables scientists in various fields including
neuroscience,, embryology and oncology to visualize in vivo and ex vivo tissue morphology …

Significance: Three-photon (3P) microscopy significantly increases the depth and resolution
of in vivo imaging due to decreased scattering and nonlinear optical sectioning …

The development of three-photon microscopy (3PM) has greatly expanded the capability of
imaging deep within biological tissues, enabling neuroscientists to visualize the structure …

Two-photon microscopy (TPM) has provided critical in situ and in vivo information in
biomedical studies due to its high resolution, intrinsic optical sectioning, and deep …

In the past two decades, two-photon microscopy (TPM) transforms biomedical research,
allowing nondestructive high-resolution fluorescent molecular imaging and label-free …

It is highly desirable to be able to optically probe biological activities deep inside live
organisms. By employing a spatially confined excitation via a nonlinear transition …

Three-photon microscopy (3PM) was shown to allow deeper imaging than two-photon
microscopy (2PM) in scattering biological tissues, such as the mouse brain, since the longer …

In vivo fundus imaging offers non-invasive access to neuron structures and biochemical
processes in the retina. However, optical aberrations of the eye degrade the imaging …