With few exceptions biological tissues strongly scatter light, making high−resolution deep imaging impossible for traditional−including confocal−fluorescence microscopy. Nonlinear optical microscopy, in particular two photon−excited fluorescence microscopy, has overcome this limitation, providing large depth penetration mainly because even multiply scattered signal photons can be assigned to their origin as the result of localized nonlinear signal generation. Two−photon microscopy thus allows cellular imaging several hundred microns deep in various organs of living animals. Here we review fundamental concepts of nonlinear microscopy and discuss conditions relevant for achieving large imaging depths in intact tissu
We present a comparative study of two-photon excited fluorescence (TPEF) and second harmonic generat...
We constructed an advanced detection system for two-photon fluorescence microscopy that allows us to...
In most biological tissues, light scattering due to small differences in refractive index limits the...
With few exceptions biological tissues strongly scatter light, making high−resolution deep imaging i...
With few exceptions biological tissues strongly scatter light, making high−resolution deep imaging i...
Two-photon excited fluorescence microscopy (TPFM) offers the highest penetration depth with subcellu...
Abstract.We describe a novel technical approach with enhanced fluorescence detection capabilities in...
Double-clad photonic crystal fibers and microelectromechanical mir-rors significantly improve the se...
We have developed a two-photon fluorescence microscope capable of imaging up to 4mm in turbid media ...
Optical microscopy techniques such as single-particle tracking and high-resolution (<500 nm) imaging...
A recent challenge in the field of bioimaging is to image vital, thick, and complex tissues in real ...
Nonlinear microscopy has become an important tool for imaging biological samples such as neurons. In...
Optical microscopy has long been an established tool in the biomedical sciences, being the preferred...
125 pagesMultiphoton microscopy has enabled unprecedented access to biological systems in their nati...
The ability to visualize deep brain structures in vivo with high spatial resolution is of rising int...
We present a comparative study of two-photon excited fluorescence (TPEF) and second harmonic generat...
We constructed an advanced detection system for two-photon fluorescence microscopy that allows us to...
In most biological tissues, light scattering due to small differences in refractive index limits the...
With few exceptions biological tissues strongly scatter light, making high−resolution deep imaging i...
With few exceptions biological tissues strongly scatter light, making high−resolution deep imaging i...
Two-photon excited fluorescence microscopy (TPFM) offers the highest penetration depth with subcellu...
Abstract.We describe a novel technical approach with enhanced fluorescence detection capabilities in...
Double-clad photonic crystal fibers and microelectromechanical mir-rors significantly improve the se...
We have developed a two-photon fluorescence microscope capable of imaging up to 4mm in turbid media ...
Optical microscopy techniques such as single-particle tracking and high-resolution (<500 nm) imaging...
A recent challenge in the field of bioimaging is to image vital, thick, and complex tissues in real ...
Nonlinear microscopy has become an important tool for imaging biological samples such as neurons. In...
Optical microscopy has long been an established tool in the biomedical sciences, being the preferred...
125 pagesMultiphoton microscopy has enabled unprecedented access to biological systems in their nati...
The ability to visualize deep brain structures in vivo with high spatial resolution is of rising int...
We present a comparative study of two-photon excited fluorescence (TPEF) and second harmonic generat...
We constructed an advanced detection system for two-photon fluorescence microscopy that allows us to...
In most biological tissues, light scattering due to small differences in refractive index limits the...