A combination of mRNA sequencing and genetic analysis reveals mechanisms that govern the development of distinct differentiated blood cell types from hematopoietic progenitors.

Single-cell tracking and cell-fate simulation suggest that low levels of p53 suppress aneuploid cell formation in unstressed cells and also reveal the dual fate of cells lacking p53 in the presence of p53-proficient cells.

During perceptual decision making, maximizing total reward in the long term requires trading reward in the short term for a faster improvement in perceptual representations.

Neuronal Ia-2 and glial Kon coordinate an injury-response insulin relay that restores glial cell populations and induces neural stem cells from glia, enabling central nervous system regeneration.

A biophysically detailed model of mouse primary visual cortex reproduces, in a quantitative manner, experimentally recorded spikes and local field potentials, and suggests mechanisms that form current sinks and sources in vivo.

In addition to the well-established involvement of descending neural tracts, the left-right side-specific endocrine mechanism may contribute to signaling from injured brain to spinal motor circuits.

Sequences at mitochondrial genome recombination sites are dually used as mRNAs and as rRNAs in actively translating mitoribosomes of T. gondii.

Chronic stimulation with odors at naturally occurring concentrations only mildly impacts early stages of olfactory processing, suggesting a need to re-interpret prevailing models of how chronic odor exposure affects olfactory function.

In an empty microglial niche, repopulating microglia arise from subventricular zone and white matter-associated areas without contributions from the bone marrow to fill the mouse brain via a spreading wave.

Stromules induced during plant innate immunity dynamically interact and use the cytoskeleton to form and to direct the movement of chloroplasts.