Neurons and neural networks often extend hundreds of micrometers in three dimensions. Capturing the calcium transients associated with their activity requires volume imaging methods with subsecond temporal resolution. Such speed is a challenge for conventional two-photon laser-scanning microscopy, because it depends on serial focal scanning in 3D and indicators with limited brightness. Here we present an optical module that is easily integrated into standard two-photon laser-scanning microscopes to generate an axially elongated Bessel focus, which when scanned in 2D turns frame rate into volume rate. We demonstrated the power of this approach in enabling discoveries for neurobiology by imaging the calcium dynamics of volumes of neurons and ...
Two-photon microscopy has revolutionized functional cellular imaging in tissue, but although the hig...
Two-photon excitation laser scanning microscopy (TPLSM) has become the tool of choice for high-resol...
Neural tissue is organized in three-dimensional (3D) networks of neuronal and glial cell populations...
Neurons and neural networks often extend hundreds of micrometers in three dimensions. Capturing the ...
Studying neuronal activity at synapses requires high spatiotemporal resolution. For high spatial res...
Brain is composed of complex neural networks that work in concert to underlie the animal’s cognition...
Imaging neurons and neural circuits over large volumes at high speed and subcellular resolution is a...
International audienceImaging intracellular calcium concentration via reporters that change their fl...
Optical imaging has become a powerful tool for studying brains in vivo. The opacity of adult brains ...
High-speed, large-scale three-dimensional (3D) imaging of neuronal activity poses a major challenge ...
Two-photon excitation fluorescence microscopy is widely used to study the activity of neuronal circu...
Understanding how neural circuits control behavior requires monitoring a large population of neurons...
To capture the emergent properties of neural circuits, high-speed volumetric imaging of neural activ...
Light sheet fluorescence microscopy offers considerable potential to the cellular neuroscience commu...
The ability to record neural activity in the brain of a living organism at cellular resolution is of...
Two-photon microscopy has revolutionized functional cellular imaging in tissue, but although the hig...
Two-photon excitation laser scanning microscopy (TPLSM) has become the tool of choice for high-resol...
Neural tissue is organized in three-dimensional (3D) networks of neuronal and glial cell populations...
Neurons and neural networks often extend hundreds of micrometers in three dimensions. Capturing the ...
Studying neuronal activity at synapses requires high spatiotemporal resolution. For high spatial res...
Brain is composed of complex neural networks that work in concert to underlie the animal’s cognition...
Imaging neurons and neural circuits over large volumes at high speed and subcellular resolution is a...
International audienceImaging intracellular calcium concentration via reporters that change their fl...
Optical imaging has become a powerful tool for studying brains in vivo. The opacity of adult brains ...
High-speed, large-scale three-dimensional (3D) imaging of neuronal activity poses a major challenge ...
Two-photon excitation fluorescence microscopy is widely used to study the activity of neuronal circu...
Understanding how neural circuits control behavior requires monitoring a large population of neurons...
To capture the emergent properties of neural circuits, high-speed volumetric imaging of neural activ...
Light sheet fluorescence microscopy offers considerable potential to the cellular neuroscience commu...
The ability to record neural activity in the brain of a living organism at cellular resolution is of...
Two-photon microscopy has revolutionized functional cellular imaging in tissue, but although the hig...
Two-photon excitation laser scanning microscopy (TPLSM) has become the tool of choice for high-resol...
Neural tissue is organized in three-dimensional (3D) networks of neuronal and glial cell populations...