Papers associated with animal hemisphere

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	Micromere descendants at the blastula stage are involved in normal archenteron formation in sea urchin embryos., Ishizuka Y., Dev Genes Evol. February 1, 2001; 211 (2): 83-8.
	Transient activation of the micro1 homeobox gene family in the sea urchin ( Hemicentrotus pulcherrimus) micromere., Kitamura K., Dev Genes Evol. February 1, 2002; 212 (1): 1-10.
	Patterning the sea urchin embryo: gene regulatory networks, signaling pathways, and cellular interactions., Angerer LM., Curr Top Dev Biol. January 1, 2003; 53 159-98.
	Primary mesenchyme cell patterning during the early stages following ingression., Peterson RE., Dev Biol. February 1, 2003; 254 (1): 68-78.
	Nuclear envelope breakdown in starfish oocytes proceeds by partial NPC disassembly followed by a rapidly spreading fenestration of nuclear membranes., Lénárt P., J Cell Biol. March 31, 2003; 160 (7): 1055-68.
	Coquillette, a sea urchin T-box gene of the Tbx2 subfamily, is expressed asymmetrically along the oral-aboral axis of the embryo and is involved in skeletogenesis., Croce J., Mech Dev. May 1, 2003; 120 (5): 561-72.
	The M-phase-promoting factor modulates the sensitivity of the Ca2+ stores to inositol 1,4,5-trisphosphate via the actin cytoskeleton., Lim D., J Biol Chem. October 24, 2003; 278 (43): 42505-14.
	Structure, regulation, and function of micro1 in the sea urchin Hemicentrotus pulcherrimus., Nishimura Y., Dev Genes Evol. November 1, 2004; 214 (11): 525-36.
	SoxB1 downregulation in vegetal lineages of sea urchin embryos is achieved by both transcriptional repression and selective protein turnover., Angerer LM., Development. March 1, 2005; 132 (5): 999-1008.
	Developmental potential of small micromeres in sea urchin embryos., Kurihara H., Zoolog Sci. August 1, 2005; 22 (8): 845-52.
	The micro1 gene is necessary and sufficient for micromere differentiation and mid/hindgut-inducing activity in the sea urchin embryo., Yamazaki A., Dev Genes Evol. September 1, 2005; 215 (9): 450-59.
	Subequatorial cytoplasm plays an important role in ectoderm patterning in the sea urchin embryo., Kominami T., Dev Growth Differ. February 1, 2006; 48 (2): 101-15.
	Gene expression patterns in a novel animal appendage: the sea urchin pluteus arm., Love AC., Evol Dev. January 1, 2007; 9 (1): 51-68.
	Specification process of animal plate in the sea urchin embryo., Sasaki H., Dev Growth Differ. September 1, 2008; 50 (7): 595-606.
	Gene regulatory network interactions in sea urchin endomesoderm induction., Sethi AJ., PLoS Biol. February 3, 2009; 7 (2): e1000029.
	Evolutionary modification of specification for the endomesoderm in the direct developing echinoid Peronella japonica: loss of the endomesoderm-inducing signal originating from micromeres., Iijima M., Dev Genes Evol. May 1, 2009; 219 (5): 235-47.
	Action at a distance during cytokinesis., von Dassow G., J Cell Biol. December 14, 2009; 187 (6): 831-45.
	Distinct embryotoxic effects of lithium appeared in a new assessment model of the sea urchin: the whole embryo assay and the blastomere culture assay., Kiyomoto M., Ecotoxicology. March 1, 2010; 19 (3): 563-70.
	Embryonic, larval, and juvenile development of the sea biscuit Clypeaster subdepressus (Echinodermata: Clypeasteroida)., Vellutini BC., PLoS One. March 22, 2010; 5 (3): e9654.
	Ancestral regulatory circuits governing ectoderm patterning downstream of Nodal and BMP2/4 revealed by gene regulatory network analysis in an echinoderm., Saudemont A., PLoS Genet. December 23, 2010; 6 (12): e1001259.
	The echinoid mitotic gradient: effect of cell size on the micromere cleavage cycle., Duncan RE., Mol Reprod Dev. January 1, 2011; 78 (10-11): 868-78.
	Atypical protein kinase C controls sea urchin ciliogenesis., Prulière G., Mol Biol Cell. June 15, 2011; 22 (12): 2042-53.
	Reciprocal signaling between the ectoderm and a mesendodermal left-right organizer directs left-right determination in the sea urchin embryo., Bessodes N., PLoS Genet. January 1, 2012; 8 (12): e1003121.
	Beyond BLASTing: tertiary and quaternary structure analysis helps identify major vault proteins., Daly TK., Genome Biol Evol. January 1, 2013; 5 (1): 217-32.
	Integration of canonical and noncanonical Wnt signaling pathways patterns the neuroectoderm along the anterior-posterior axis of sea urchin embryos., Range RC., PLoS Biol. January 1, 2013; 11 (1): e1001467.
	Characterization and Endocytic Internalization of Epith-2 Cell Surface Glycoprotein during the Epithelial-to-Mesenchymal Transition in Sea Urchin Embryos., Wakayama N., Front Endocrinol (Lausanne). January 1, 2013; 4 112.
	The tension at the top of the animal pole decreases during meiotic cell division., Satoh SK., PLoS One. January 1, 2013; 8 (11): e79389.
	Towards 3D in silico modeling of the sea urchin embryonic development., Rizzi B., J Chem Biol. September 13, 2013; 7 (1): 17-28.
	Nuclearization of β-catenin in ectodermal precursors confers organizer-like ability to induce endomesoderm and pattern a pluteus larva., Byrum CA., Evodevo. November 4, 2013; 4 (1): 31.
	Mesomere-derived glutamate decarboxylase-expressing blastocoelar mesenchyme cells of sea urchin larvae., Katow H., Biol Open. January 15, 2014; 3 (1): 94-102.
	Molecular conservation of metazoan gut formation: evidence from expression of endomesoderm genes in Capitella teleta (Annelida)., Boyle MJ., Evodevo. June 17, 2014; 5 39.
	Early asymmetric cues triggering the dorsal/ventral gene regulatory network of the sea urchin embryo., Cavalieri V., Elife. December 2, 2014; 3 e04664.
	Mechanisms of the epithelial-to-mesenchymal transition in sea urchin embryos., Katow H., Tissue Barriers. January 1, 2015; 3 (4): e1059004.
	Ca²⁺ influx-linked protein kinase C activity regulates the β-catenin localization, micromere induction signalling and the oral-aboral axis formation in early sea urchin embryos., Yazaki I., Zygote. June 1, 2015; 23 (3): 426-46.
	A workflow to process 3D+time microscopy images of developing organisms and reconstruct their cell lineage., Faure E., Nat Commun. February 25, 2016; 7 8674.
	Expression of GATA and POU transcription factors during the development of the planktotrophic trochophore of the polychaete serpulid Hydroides elegans., Wong KS., Evol Dev. July 1, 2016; 18 (4): 254-66.
	An integrated modelling framework from cells to organism based on a cohort of digital embryos., Villoutreix P., Sci Rep. December 2, 2016; 6 37438.
	Diversification of spatiotemporal expression and copy number variation of the echinoid hbox12/pmar1/micro1 multigene family., Cavalieri V., PLoS One. March 28, 2017; 12 (3): e0174404.
	Experimental demonstration of a trophic cascade in the Galápagos rocky subtidal: Effects of consumer identity and behavior., Witman JD., PLoS One. April 17, 2017; 12 (4): e0175705.
	Lectins identify distinct populations of coelomocytes in Strongylocentrotus purpuratus., Liao WY., PLoS One. November 10, 2017; 12 (11): e0187987.
	MAPK and GSK3/ß-TRCP-mediated degradation of the maternal Ets domain transcriptional repressor Yan/Tel controls the spatial expression of nodal in the sea urchin embryo., Molina MD., PLoS Genet. September 17, 2018; 14 (9): e1007621.
	cis-Regulatory analysis for later phase of anterior neuroectoderm-specific foxQ2 expression in sea urchin embryos., Yamazaki A., Genesis. June 1, 2019; 57 (6): e23302.

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