Decoding brain activity using a novel paradigm unveils distinct neural signatures of subjective experiences during movie-watching.

Whole-brain activity imaging in larval zebrafish reveals brain regions that influence patterns of spontaneous movement to increase local exploration efficiency.

Sudden stopping of rhythmic movement is associated with a pronounced increase of 60-90 Hz gamma oscillations in the subthalamic nucleus, which have formerly been regarded as favouring movement.

A new system for tagging activated neuronal population offers multiple advantages over existing systems based on immediate early genes, including greater sensitivity and specificity, and suitability for easy application in species other than mice.

The distribution of redundant neural activity is coupled with task-relevant activity, which may limit the extent to which redundancy can be exploited by the brain for computation.

A fully automated workflow for high-throughput mouse behavioral and optogenetic experiments in homecage reveals involvement of brain regions in tactile decision-making.

Functional UltraSound imaging allows mapping tonotopic organisation in multiple auditory subcortical and cortical brain structures with an unprecedented spatial functional resolution, while giving access to long-distance top-down connectivity pattern from frontal cortex to auditory cortex.

While monitoring neuronal activity in freely moving Drosophila is challenging, HI-FISH enables brain-wide mapping of active neurons and reveals behavior-specific neural activity.

A distinction between private and public aspects of mental states is reflected in a medial-lateral division of human prefrontal cortex.

Identifying activity imbalances in specific brain regions may help to diagnose and treat psychiatric disorders.