Locomotion engages widely distributed networks of neurons. However, our understanding of
the spatial architecture and temporal dynamics of the networks that underpin walking …

In many areas of the brain, neural populations act as a coordinated network whose state is
tied to behavior on a millisecond timescale. Two-photon (2p) calcium imaging is a powerful …

The optical imaging of neuronal activity with potentiometric probes has been credited with
being able to address key questions in neuroscience via the simultaneous recording of …

Visual motion estimation is a canonical neural computation. In Drosophila, recent advances
have identified anatomic and functional circuitry underlying direction-selective computations …

Miniature single-photon microscopes have been widely used to image neuronal assemblies
in the brain of freely moving animals over the last decade. However, these systems have …

Neurons integrate excitatory and inhibitory signals to produce their outputs, but the role of
input timing in this integration remains poorly understood. Motion detection is a paradigmatic …

Genetically encoded reporters have greatly increased our understanding of biology. While
fluorescent reporters have been widely used, photostability and phototoxicity have hindered …

Neurons integrate excitatory and inhibitory signals to produce their outputs, but the role of
input timing in this integration remains poorly understood. Motion detection is a paradigmatic …

Mapping neurons in the brain is important to understand the neuronal circuits involved in
cognitive functions such as learning and memory formation. More importantly …

Recent advances in neural interfaces have enabled monitoring of the activity of increasingly
large neuronal populations. Among these techniques, two-photon (2p) calcium imaging is a …