Single-cell transcriptomes of olfactory receptor neurons at multiple developmental stages reveal cell-type-specific gene expression programs that underlie their development and sensory biology.

Single-cell transcriptomes of Drosophila olfactory projection neurons correspond to previously defined cell types, exhibit unique characteristics at different developmental stages, and reveal cell-type-specific gene expression programs in development and function.

Dorsal raphe Pet1 neurons are molecularly heterogeneous, comprising as many as fourteen distinct subtypes that show biased cell body distributions across dorsal raphe subdomains.

Single-nucleus transcriptomics exposes unique features of human somatosensory neurons and clues that may help resolve repeated problems in translating new experimental approaches for treating pain.

A multiplexed retrograde virus tracing method captures single-neuron projectome and transcriptome simultaneously.

The combination of single-cell transcriptomics and whole-brain mapping of bulk and single-cell projections reveals the relationship between the molecular architecture, cell body distribution, and axonal arborization of serotonin neurons.

Molecular analysis paints a detailed picture of the distinctiveness and complexities of peripheral somatosensory neurons.

A single-cell RNA-seq study examining gene expression profiles in neurons that underlie Drosophila reproductive behaviors shows males and females build sex-specific behaviors at the molecular-genetic level by overlaying sex-specific information on core gene expression networks.

Single somata and dendrites of individual rat neurons were laser-captured and sequenced to discover and compare the subcellular transcriptomes, identifying over 4000 mRNAs in GABAergic dendrites.

A proof-of-principle is provided for the use of high-density neurophysiological recordings in assessing local circuit interactions within the macaque brain.