Branson K et al. (2015) Cell "Imaging the neural basis of locomotion."

Branson K, Freeman J

[Cell, 2015]

To investigate the fundamental question of how nervous systems encode, organize, and sequence behaviors, Kato etal. imaged neural activity with cellular resolution across the brain of the worm Caenorhabditis elegans. Locomotion behavior seems to be continuously represented by cyclical patterns of distributed neural activity that are present even in immobilized animals.

Leiser SF et al. (2016) Worm "New insights into cell non-autonomous mechanisms of the C. elegans hypoxic response."

Leiser SF, Rossner R, Kaeberlein M

[Worm, 2016]

The hypoxic response is a well-studied and highly conserved biological response to low oxygen availability. First described more than 20 y ago, the traditional model for this response is that declining oxygen levels lead to stabilization of hypoxia-inducible transcription factors (HIFs), which then bind to hypoxia responsive elements (HREs) in target genes to mediate the transcriptional changes collectively known as the hypoxic response.(1,2) Recent work in C. elegans has forced a re-evaluation of this model by indicating that the worm HIF (HIF-1) can mediate effects in a cell non-autonomous fashion and, in at least one case, increase expression of an intestinal hypoxic response target gene in cells lacking HIF-1.