Kavitha Chinnaiya, Sarah Burbridge ... Marysia Placzek
Fate-mapping, combined with gain- and loss-of-function approaches, reveal the role of BMP signalling in the spatio-temporal development of the tuberal hypothalamus, a critically important brain region.
Joseph Pickering, Kavitha Chinnaiya, Matthew Towers
A cell cycle timing mechanism similar to one operating in cultured adult oligodendrocyte progenitor cells controls the growth and patterning of the embryonic chick wing bud.
Spenser S Smith, Daniel Chu ... Richard A Schneider
Multiple levels of gene regulation in the TGFβ signaling pathway mediate the expression of Mmp13, establish species-specific domains of bone resorption, and likely generate evolutionary variation in jaw length.
Duk-Su Koh, Anastasiia Stratiievska ... Sharona E Gordon
The generation of phosphoinositide 3,4,5-trisphosphate causes an increase in the number of TRPV1 ion channels and insulin receptors in the plasma membrane.
IL-6 gene and protein expression are rapidly and transiently upregulated in the choroid in response to myopic defocus, as a result of prior form deprivation or treatment with +15 D lenses in a nitric oxide-dependent manner.
Shashank Gandhi, Erica J Hutchins ... Marianne E Bronner
Chromatin remodeler Hmga1 has two separable functions in neural crest development, first neural crest specification at the neural plate border and later in Wnt-dependent emigration from the neural tube.
Alexandre P Thiery, Ailin Leticia Buzzi ... Andrea Streit
Neural plate border cells co-express neural, neural crest, and placodal transcriptional programs before cell fate decisions occur and are transcriptionally heterogeneous along the antero-posterior and medial-lateral axis.
Marian Breuer, Tyler M Earnest ... Zaida Luthey-Schulten
A near-complete flux balance analysis model of a minimal cell demonstrates the high essentiality of its metabolic genes, agrees well with experimental essentiality data and suggests some further gene removals.
Ryoji Amamoto, Mauricio D Garcia ... Constance L Cepko
Probe-Seq is a cell type specific bulk RNA sequencing method that can be applied to a wide-ranging tissue types from both vertebrates and invertebrates without genetic labeling.