Wanling Peng

The paper uses optogenetic fMRI in mice to show how specific basal forebrain neuron types influence whole-brain BOLD activations and behavioral preferences.

The paper develops GRAB sensors for detecting neuropeptides with high specificity and sensitivity, enabling in vivo monitoring of their release and function.

The paper develops a genetically encoded adenosine sensor to show activity-dependent non-vesicular adenosine release from somatodendritic regions via calcium influx and equilibrative transporters.

This paper develops a new genetically encoded fluorescent cAMP indicator, G-Flamp1, which shows high sensitivity, brightness, and fast response kinetics for in vivo cAMP imaging.

This paper demonstrates whole-brain in vivo base editing in mice to reverse autistic-like behaviors by correcting a mutation in the MEF2C gene.

This paper develops a genetically encoded sensor to measure serotonin dynamics in vivo, showing its effectiveness in both flies and mice across various conditions.

The paper develops an optimized GRABACh sensor to measure in vivo cholinergic activity in Drosophila and mice, revealing compartmental ACh signals and single-trial dynamics.

This paper develops GRABDA sensors to measure dopamine with high precision in multiple organisms during complex behaviors.