Vam_gs.qiao.2.var

Utilizes a deformable mirror to correct for system-level nonlinearities and optical aberrations, enabling sharp imaging across the entire 50 mm² area.

It allows researchers to visualize brain structures spanning from superficial layers down to 900 μm depth in a single study.

Optimized for in vivo studies, involving anaesthetized animals to maintain consistency.

Experiments have shown its capability to study both morphology (structural) and neuronal activity (functional) in mouse brains. 4. Implementation and Data Handling

It achieves cellular resolution across an ultra-large FOV exceeding 50 mm².

Capable of visualizing neuronal activity across a spatial range of over 7 mm. 2. Components of the Adaptive System

Utilizes a deformable mirror to correct for system-level nonlinearities and optical aberrations, enabling sharp imaging across the entire 50 mm² area.

It allows researchers to visualize brain structures spanning from superficial layers down to 900 μm depth in a single study.

Optimized for in vivo studies, involving anaesthetized animals to maintain consistency.

Experiments have shown its capability to study both morphology (structural) and neuronal activity (functional) in mouse brains. 4. Implementation and Data Handling

It achieves cellular resolution across an ultra-large FOV exceeding 50 mm².

Capable of visualizing neuronal activity across a spatial range of over 7 mm. 2. Components of the Adaptive System

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