Asymmetric distribution of hypoxia-inducible factor α regulates dorsoventral axis establishment in the early sea urchin embryo

ABSTRACT Hypoxia signaling is an ancient pathway by which animals can respond to low oxygen. Malfunction of this pathway disturbs hypoxic acclimation and can result in various diseases, including cancers. The role of hypoxia signaling in early embryogenesis remains unclear. Here, we show that in the blastula of the sea urchin Strongylocentrotus purpuratus, hypoxia-inducible factor α (HIFα), the downstream transcription factor of the hypoxia pathway, is localized and transcriptionally active on the future dorsal side. This asymmetric distribution is attributable to its oxygen-sensing ability. Manipulations of the HIFα level entrained the dorsoventral axis, as the side with the higher level of HIFα tends to develop into the dorsal side. Gene expression analyses revealed that HIFα restricts the expression of nodal to the ventral side and activates several genes encoding transcription factors on the dorsal side. We also observed that intrinsic hypoxic signals in the early embryos formed a gradient, which was disrupted under hypoxic conditions. Our results reveal an unprecedented role of the hypoxia pathway in animal development. Highlighted article: Oxygen-sensitive hydroxylases regulate HIFα, and consequently nodal, asymmetry in the prospective dorsal and ventral blastula, providing positional bias for dorsoventral patterning.

[1]  V. Bello,et al.  Regulation of myogenesis by environmental hypoxia , 2016, Journal of Cell Science.

[2]  E. Rankin,et al.  Hypoxic control of metastasis , 2016, Science.

[3]  C. Duan Hypoxia-inducible factor 3 biology: complexities and emerging themes. , 2016, American journal of physiology. Cell physiology.

[4]  P. Martinez,et al.  Regulatory circuit rewiring and functional divergence of the duplicate admp genes in dorsoventral axial patterning. , 2016, Developmental biology.

[5]  T. Lepage,et al.  A deuterostome origin of the Spemann organiser suggested by Nodal and ADMPs functions in Echinoderms , 2015, Nature Communications.

[6]  T. Lepage,et al.  The Maternal Maverick/GDF15-like TGF-β Ligand Panda Directs Dorsal-Ventral Axis Formation by Restricting Nodal Expression in the Sea Urchin Embryo , 2015, PLoS biology.

[7]  Smadar Ben-Tabou de-Leon,et al.  Comparative Study of Regulatory Circuits in Two Sea Urchin Species Reveals Tight Control of Timing and High Conservation of Expression Dynamics , 2015, PLoS genetics.

[8]  M. Kloc,et al.  Balbiani body, nuage and sponge bodies--term plasm pathway players. , 2014, Arthropod structure & development.

[9]  J. Coffman,et al.  Oral-aboral axis specification in the sea urchin embryo, IV: hypoxia radializes embryos by preventing the initial spatialization of nodal activity. , 2014, Developmental biology.

[10]  E. Mercken,et al.  Declining NAD+ Induces a Pseudohypoxic State Disrupting Nuclear-Mitochondrial Communication during Aging , 2013, Cell.

[11]  E. Davidson,et al.  Gene regulatory control in the sea urchin aboral ectoderm: spatial initiation, signaling inputs, and cell fate lockdown. , 2013, Developmental biology.

[12]  G. Moy,et al.  Localization and Substrate Selectivity of Sea Urchin Multidrug (MDR) Efflux Transporters* , 2012, The Journal of Biological Chemistry.

[13]  Yi-Hsien Su,et al.  Opposing Nodal and BMP Signals Regulate Left–Right Asymmetry in the Sea Urchin Larva , 2012, PLoS biology.

[14]  Tyson V. Sharp,et al.  The LIMD1 protein bridges an association between the prolyl hydroxylases and VHL to repress HIF-1 activity , 2012, Nature Cell Biology.

[15]  T. Williams,et al.  Molecular evolution of the metazoan PHD-HIF oxygen-sensing system. , 2011, Molecular biology and evolution.

[16]  C. Kieda,et al.  Why is the partial oxygen pressure of human tissues a crucial parameter? Small molecules and hypoxia , 2011, Journal of cellular and molecular medicine.

[17]  A. R. Mateus,et al.  Evolution and molecular mechanisms of adaptive developmental plasticity , 2011, Molecular ecology.

[18]  J. Coffman,et al.  Oxygen, pH, and oral–aboral axis specification in the sea urchin embryo , 2011, Molecular reproduction and development.

[19]  B. Schierwater,et al.  The hypoxia‐inducible transcription factor pathway regulates oxygen sensing in the simplest animal, Trichoplax adhaerens , 2011, EMBO reports.

[20]  Yi-Hsien Su,et al.  The dynamic gene expression patterns of transcription factors constituting the sea urchin aboral ectoderm gene regulatory network , 2011, Developmental dynamics : an official publication of the American Association of Anatomists.

[21]  T. Lepage,et al.  Ancestral Regulatory Circuits Governing Ectoderm Patterning Downstream of Nodal and BMP2/4 Revealed by Gene Regulatory Network Analysis in an Echinoderm , 2010, PLoS genetics.

[22]  S. Dunwoodie The role of hypoxia in development of the Mammalian embryo. , 2009, Developmental cell.

[23]  R. O. Poyton,et al.  Mitochondrial generation of free radicals and hypoxic signaling , 2009, Trends in Endocrinology & Metabolism.

[24]  J. M. Venuti,et al.  Reduced O2 and elevated ROS in sea urchin embryos leads to defects in ectoderm differentiation , 2009, Developmental dynamics : an official publication of the American Association of Anatomists.

[25]  Eric H Davidson,et al.  A perturbation model of the gene regulatory network for oral and aboral ectoderm specification in the sea urchin embryo. , 2009, Developmental biology.

[26]  Hu Chen,et al.  A reducing environment stabilizes HIF‐2α in SH‐SY5Y cells under hypoxic conditions , 2008, FEBS letters.

[27]  Dong He,et al.  SpBase: the sea urchin genome database and web site , 2008, Nucleic Acids Res..

[28]  Hu Chen,et al.  Glucose up‐regulates HIF‐1α expression in primary cortical neurons in response to hypoxia through maintaining cellular redox status , 2008, Journal of neurochemistry.

[29]  W. Kaelin,et al.  Oxygen sensing by metazoans: the central role of the HIF hydroxylase pathway. , 2008, Molecular cell.

[30]  M. Simon,et al.  The role of oxygen availability in embryonic development and stem cell function , 2008, Nature Reviews Molecular Cell Biology.

[31]  D. McClay,et al.  Vasa protein expression is restricted to the small micromeres of the sea urchin, but is inducible in other lineages early in development. , 2008, Developmental biology.

[32]  T. Lepage,et al.  A conserved role for the nodal signaling pathway in the establishment of dorso-ventral and left-right axes in deuterostomes. , 2008, Journal of experimental zoology. Part B, Molecular and developmental evolution.

[33]  François Lapraz,et al.  Cis-regulatory analysis of nodal and maternal control of dorsal-ventral axis formation by Univin, a TGF-β related to Vg1 , 2007, Development.

[34]  G. Semenza,et al.  Life with Oxygen , 2007, Science.

[35]  J. Coffman,et al.  Mitochondria, redox signaling and axis specification in metazoan embryos. , 2007, Developmental biology.

[36]  C. Sardet,et al.  From oocyte to 16‐cell stage: Cytoplasmic and cortical reorganizations that pattern the ascidian embryo , 2007, Developmental dynamics : an official publication of the American Association of Anatomists.

[37]  J. Eisenbart,et al.  The Qo site of the mitochondrial complex III is required for the transduction of hypoxic signaling via reactive oxygen species production , 2007, The Journal of cell biology.

[38]  Eric H Davidson,et al.  Cis‐regulatory control of the nodal gene, initiator of the sea urchin oral ectoderm gene network , 2007, Developmental biology.

[39]  E. Davidson The Regulatory Genome: Gene Regulatory Networks In Development And Evolution , 2006 .

[40]  N. Blackstone Charles Manning Child (1869-1954): the past, present, and future of metabolic signaling. , 2006, Journal of experimental zoology. Part B, Molecular and developmental evolution.

[41]  R. DePinho,et al.  Mouse model for noninvasive imaging of HIF prolyl hydroxylase activity: assessment of an oral agent that stimulates erythropoietin production. , 2006, Proceedings of the National Academy of Sciences of the United States of America.

[42]  D. McClay,et al.  p38 MAPK is essential for secondary axis specification and patterning in sea urchin embryos , 2006, Development.

[43]  Lázaro Centanin,et al.  Reversion of lethality and growth defects in Fatiga oxygen‐sensor mutant flies by loss of Hypoxia‐Inducible Factor‐α/Sima , 2005, EMBO reports.

[44]  G. Camenisch,et al.  Integration of Oxygen Signaling at the Consensus HRE , 2005, Science's STKE.

[45]  Cornelia I. Bargmann,et al.  Oxygen sensation and social feeding mediated by a C. elegans guanylate cyclase homologue , 2004, Nature.

[46]  Christopher J. Schofield,et al.  Oxygen sensing by HIF hydroxylases , 2004, Nature Reviews Molecular Cell Biology.

[47]  Kan Ding,et al.  Multiple organ pathology, metabolic abnormalities and impaired homeostasis of reactive oxygen species in Epas1−/− mice , 2003, Nature Genetics.

[48]  Eric H Davidson,et al.  A regulatory gene network that directs micromere specification in the sea urchin embryo. , 2002, Developmental biology.

[49]  H. Jiang,et al.  The Caenorhabditis elegans hif-1 gene encodes a bHLH-PAS protein that is required for adaptation to hypoxia , 2001, Proceedings of the National Academy of Sciences of the United States of America.

[50]  J. McCarthy,et al.  Oral-aboral axis specification in the sea urchin embryo II. Mitochondrial distribution and redox state contribute to establishing polarity in Strongylocentrotus purpuratus. , 2001, Developmental biology.

[51]  J. Coffman,et al.  Oral-aboral axis specification in the sea urchin embryo. I. Axis entrainment by respiratory asymmetry. , 2001, Developmental biology.

[52]  K. Claffey,et al.  Role of AP-1 and HIF-1 Transcription Factors in TGF-β Activation of VEGF Expression , 2001, Growth factors.

[53]  G. Semenza,et al.  HIF-1 and human disease: one highly involved factor. , 2000, Genes & development.

[54]  J. Peng,et al.  The transcription factor EPAS-1/hypoxia-inducible factor 2alpha plays an important role in vascular remodeling. , 2000, Proceedings of the National Academy of Sciences of the United States of America.

[55]  M. Kloc,et al.  The Balbiani body: Asymmetry in the mammalian oocyte , 2000 .

[56]  A S Kennedy,et al.  Pimonidazole: a novel hypoxia marker for complementary study of tumor hypoxia and cell proliferation in cervical carcinoma. , 1998, Gynecologic oncology.

[57]  R. Hammer,et al.  The hypoxia-responsive transcription factor EPAS1 is essential for catecholamine homeostasis and protection against heart failure during embryonic development. , 1998, Genes & development.

[58]  M. Gassmann,et al.  Cellular and developmental control of O2 homeostasis by hypoxia-inducible factor 1 alpha. , 1998, Genes & development.

[59]  R. Britten,et al.  The oral-aboral axis of a sea urchin embryo is specified by first cleavage. , 1989, Development.

[60]  D. Pease Echinoderm bilateral determination in chemical concentration gradients. II. The effects of Azide, pilocarpine, pyocyanine, diamine, cysteine, glutathione, and lithium , 1942 .

[61]  D. Pease Echinoderm bilateral determination in chemical concentration gradients. III. The effects of carbon monoxide and other gases , 1942 .

[62]  C. M. Child Formation and Reduction of Indophenol Blue in Development of an Echinoderm. , 1941, Proceedings of the National Academy of Sciences of the United States of America.

[63]  D. Pease Echinoderm bilateral determination in chemical concentration gradients. I. The effects of cyanide, ferricyanide, iodoacetate, picrate, dinitrophenol, urethane, iodine, malonate, etc. , 1941 .

[64]  P. Carmeliet,et al.  Loss of HIF-2α and inhibition of VEGF impair fetal lung maturation, whereas treatment with VEGF prevents fatal respiratory distress in premature mice , 2002, Nature Medicine.

[65]  M. Kloc,et al.  RNA localization and germ cell determination in Xenopus. , 2001, International review of cytology.

[66]  H. Ryan,et al.  HIF-1 alpha is required for solid tumor formation and embryonic vascularization. , 1998, The EMBO journal.