I will discuss our recent work on the use of digital optical phase conjugation and ultrasound tagging to accomplish time-reversal deep tissue optical focusing for fluorescence imaging and other applications
New developments in neuroscience are enabling us to understand the brain at unprecedented temporal a...
In turbid media such as biological tissue, multiple scattering hinders direct light focusing at dept...
Fluorescence imaging is one of the most important research tools in biomedical sciences. However, sc...
I will discuss our recent work on the use of digital optical phase conjugation and ultrasound taggin...
Traditionally, focusing of light in biological tissues is confounded by the extreme scattering natur...
We report an experimental investigation of time-reversed ultrasonically encoded optical focusing in ...
The problem of optical scattering was long thought to fundamentally limit the depth at which light c...
The problem of optical scattering was long thought to fundamentally limit the depth at which light c...
Fluorescence imaging is one of the most important research tools in biomedical sciences. However, sc...
The problem of optical scattering was long thought to fundamentally limit the depth at which light c...
A novel technique uses ultrasonic encoding and time reversal to break the diffusion limit and enabl...
A novel technique uses ultrasonic encoding and time reversal to break the diffusion limit and enabl...
Scattering dominates light propagation in biological tissue, and therefore restricts both resolution...
Scattering dominates light propagation in biological tissue, and therefore restricts both resolution...
Scattering dominates light propagation in biological tissue, and therefore restricts both resolution...
New developments in neuroscience are enabling us to understand the brain at unprecedented temporal a...
In turbid media such as biological tissue, multiple scattering hinders direct light focusing at dept...
Fluorescence imaging is one of the most important research tools in biomedical sciences. However, sc...
I will discuss our recent work on the use of digital optical phase conjugation and ultrasound taggin...
Traditionally, focusing of light in biological tissues is confounded by the extreme scattering natur...
We report an experimental investigation of time-reversed ultrasonically encoded optical focusing in ...
The problem of optical scattering was long thought to fundamentally limit the depth at which light c...
The problem of optical scattering was long thought to fundamentally limit the depth at which light c...
Fluorescence imaging is one of the most important research tools in biomedical sciences. However, sc...
The problem of optical scattering was long thought to fundamentally limit the depth at which light c...
A novel technique uses ultrasonic encoding and time reversal to break the diffusion limit and enabl...
A novel technique uses ultrasonic encoding and time reversal to break the diffusion limit and enabl...
Scattering dominates light propagation in biological tissue, and therefore restricts both resolution...
Scattering dominates light propagation in biological tissue, and therefore restricts both resolution...
Scattering dominates light propagation in biological tissue, and therefore restricts both resolution...
New developments in neuroscience are enabling us to understand the brain at unprecedented temporal a...
In turbid media such as biological tissue, multiple scattering hinders direct light focusing at dept...
Fluorescence imaging is one of the most important research tools in biomedical sciences. However, sc...
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