Fluorescent imaging behind turbid layers has recently become available using several different methods based on speckle correlations. The limited range of these speckle correlations embodied in the memory effect, however, leads to a severe limitation of the field of view of these imaging techniques. Here, we present a method based on iterative scanning and re-focusing using wavefront shaping, such that neighbouring regions to the field of view of the memory effect can be imaged. This allows for an extension of the field of view of scattered light fluorescence microscopy far beyond the limits given by the memory effect. With this addition, applications in real life turbid media become possible, which can also be extended to dynamic media usi...
For centuries, the optical microscope has been a crucial instrument for new biological findings, as ...
This is the final version of the article. Available via open access from Optical Society of America ...
To focus light beyond one transport mean free path, time-reversed ultrasonically encoded (TRUE) opti...
Fluorescent imaging behind turbid layers has recently become available using several different metho...
This is the author accepted manuscript. The final version is available from Optical Society of Ameri...
Background Light sheet microscopy became a popular tool allowing fast imaging with reduced out of fo...
Microscopy through turbid layers is of great interest for biological applications. We present a setu...
In imaging geometries, which employ wavefront-shaping to control the light transport through a multi...
Background If structures of interest are hidden beneath turbid layers such as biological tissues, im...
We exploit memory effect speckle correlations for the imaging of incoherent linear (single-photon) f...
Imaging in turbid media such as biological tissue is challenging primarily due to light scattering, ...
This is the final version of the article. Available from Optical Society of America via the DOI in t...
In turbid media, light gets multiply scattered to an extent that all the information of its propagat...
We demonstrate three-dimensional imaging through a thin turbid medium using digital phase conjugatio...
In microscopy, light scattering sets the limit for the maximum imaging depth inside biological tissu...
For centuries, the optical microscope has been a crucial instrument for new biological findings, as ...
This is the final version of the article. Available via open access from Optical Society of America ...
To focus light beyond one transport mean free path, time-reversed ultrasonically encoded (TRUE) opti...
Fluorescent imaging behind turbid layers has recently become available using several different metho...
This is the author accepted manuscript. The final version is available from Optical Society of Ameri...
Background Light sheet microscopy became a popular tool allowing fast imaging with reduced out of fo...
Microscopy through turbid layers is of great interest for biological applications. We present a setu...
In imaging geometries, which employ wavefront-shaping to control the light transport through a multi...
Background If structures of interest are hidden beneath turbid layers such as biological tissues, im...
We exploit memory effect speckle correlations for the imaging of incoherent linear (single-photon) f...
Imaging in turbid media such as biological tissue is challenging primarily due to light scattering, ...
This is the final version of the article. Available from Optical Society of America via the DOI in t...
In turbid media, light gets multiply scattered to an extent that all the information of its propagat...
We demonstrate three-dimensional imaging through a thin turbid medium using digital phase conjugatio...
In microscopy, light scattering sets the limit for the maximum imaging depth inside biological tissu...
For centuries, the optical microscope has been a crucial instrument for new biological findings, as ...
This is the final version of the article. Available via open access from Optical Society of America ...
To focus light beyond one transport mean free path, time-reversed ultrasonically encoded (TRUE) opti...