International audienceWe demonstrate image-based aberration correction in a third-harmonic generation (THG) microscope. We describe a robust, mostly sample-independent correction scheme relying on prior measurement of the influence of aberration modes produced by a deformable mirror on the quality of THG images. We find that using image sharpness as an image quality metric, correction of N aberration modes is achieved using 2(2N+1) measurements in a variety of samples. We also report aberration correction in combined multiharmonic and two-photon excited fluorescence experiments. Finally, we demonstrate time-dependent adaptive THG imaging in developing embryonic tissue
We demonstrate that sample induced aberrations can be measured in a nonlinear microscope. This uses ...
Adaptive optics can improve the performance of optical systems and devices by correcting phase aberr...
Label-free microscopy is a very powerful technique that can be applied to study samples with no need...
International audienceWe demonstrate image-based aberration correction in a third-harmonic generatio...
Specimen-induced aberrations often affect microscopes, particularly when high numerical aperture len...
International audienceAdaptive optics is implemented in a harmonic generation microscope using a wav...
3D imaging using a multiphoton scanning confocal microscope is ultimately limited by aberrations of ...
Nonlinear microscopy is capable of imaging biological tissue non-invasively with sub-cellular resolu...
Multiphoton microscopy has evolved into a powerful bioimaging tool in three dimensions. However, the...
Optical aberrations have detrimental effects in multiphoton microscopy. These effects can be curtail...
Simultaneous imaging of multiple labels in tissues is key to studying complex biological processes. ...
International audienceNonlinear microscopy can be used to probe the intrinsic optical properties of ...
Nonlinear microscopy can be used to probe the intrinsic optical properties of biological tissues. Us...
Two-photon microscopy has become an indispensable tool in biological research allowing imaging of in...
International audienceWe characterize experimentally the influence of sample structure and beam focu...
We demonstrate that sample induced aberrations can be measured in a nonlinear microscope. This uses ...
Adaptive optics can improve the performance of optical systems and devices by correcting phase aberr...
Label-free microscopy is a very powerful technique that can be applied to study samples with no need...
International audienceWe demonstrate image-based aberration correction in a third-harmonic generatio...
Specimen-induced aberrations often affect microscopes, particularly when high numerical aperture len...
International audienceAdaptive optics is implemented in a harmonic generation microscope using a wav...
3D imaging using a multiphoton scanning confocal microscope is ultimately limited by aberrations of ...
Nonlinear microscopy is capable of imaging biological tissue non-invasively with sub-cellular resolu...
Multiphoton microscopy has evolved into a powerful bioimaging tool in three dimensions. However, the...
Optical aberrations have detrimental effects in multiphoton microscopy. These effects can be curtail...
Simultaneous imaging of multiple labels in tissues is key to studying complex biological processes. ...
International audienceNonlinear microscopy can be used to probe the intrinsic optical properties of ...
Nonlinear microscopy can be used to probe the intrinsic optical properties of biological tissues. Us...
Two-photon microscopy has become an indispensable tool in biological research allowing imaging of in...
International audienceWe characterize experimentally the influence of sample structure and beam focu...
We demonstrate that sample induced aberrations can be measured in a nonlinear microscope. This uses ...
Adaptive optics can improve the performance of optical systems and devices by correcting phase aberr...
Label-free microscopy is a very powerful technique that can be applied to study samples with no need...