All Stories

  1. Organizer formation, organizer maintenance and epithelial cell plasticity in Hydra: Role of the Wnt3/β-catenin/TCF/Sp5/Zic4 gene network
  2. The Wnt/β-catenin/TCF/Sp5/Zic4 Gene Network That Regulates Head Organizer Activity in Hydra Is Differentially Regulated in Epidermis and Gastrodermis
  3. TheWnt/β-catenin/TCF/Sp5/Zic4gene network that regulates head organizer activity inHydrais differentially regulated in epidermis and gastrodermis
  4. The transcription factor Zic4 promotes tentacle formation and prevents epithelial transdifferentiation in Hydra
  5. Apical-to-basal graded ROS metabolism in intact Hydra leads to distinct levels of injury-induced ROS signaling in apical and basal regenerating tips
  6. Combining RNAi-Mediated β-Catenin Inhibition and Reaggregation to Study Hydra Whole-Body Regeneration
  7. Studying Stem Cell Biology in Intact and Whole-Body Regenerating Hydra by Flow Cytometry
  8. Whole-Body Regeneration
  9. The transcription factor Zic4 acts as a transdifferentiation switch
  10. Cellular, Metabolic, and Developmental Dimensions of Whole-Body Regeneration in Hydra
  11. The ULK1 kinase, a necessary component of the pro-regenerative and anti-aging machinery in Hydra
  12. The polymorphism of Hydra microsatellite sequences provides strain-specific signatures
  13. The polymorphism ofHydramicrosatellite sequences provides strain-specific signatures
  14. Deficient autophagy in epithelial stem cells drives aging in the freshwater cnidarian Hydra
  15. Model systems for regeneration: Hydra
  16. Combining BrdU-Labeling to Detection of Neuronal Markers to Monitor Adult Neurogenesis in Hydra
  17. Modern genomic tools reveal the structural and cellular diversity of cnidarian nervous systems
  18. Loss of Neurogenesis in Aging Hydra
  19. Generic and context-dependent gene modulations duringHydrawhole body regeneration
  20. An evolutionarily-conserved Wnt3/β-catenin/Sp5 feedback loop restricts head organizer activity in Hydra
  21. Freshwater Cnidarian Hydra: A Long-lived Model for Aging Studies
  22. An evolutionary-conserved Wnt3/β-catenin/Sp5 feedback loop restricts head organizer activity inHydra
  23. Non-developmental dimensions of adult regeneration in Hydra
  24. Impact of cycling cells and cell cycle regulation on Hydra regeneration
  25. Hydra , a Model System for Deciphering the Mechanisms of Aging and Resistance to Aging
  26. Deficient autophagy drives aging inHydra
  27. Hydra, a model system for deciphering the mechanisms of aging and resistance to aging
  28. Trends in tissue repair and regeneration
  29. How Somatic Adult Tissues Develop Organizer Activity
  30. Plasticity of the epithelial genetic program
  31. A dynamic architecture of life
  32. The TALE face of Hox proteins in animal evolution
  33. Multi-functionality and plasticity characterize epithelial cells inHydra
  34. Injury-induced immune responses in Hydra
  35. Hydra, a powerful model for aging studies
  36. Preface
  37. Cell Death
  38. Robust G2 pausing of adult stem cells in Hydra
  39. Regeneration inHydra
  40. Punctuated Emergences of Genetic and Phenotypic Innovations in Eumetazoan, Bilaterian, Euteleostome, and Hominidae Ancestors
  41. RNAseq versus genome-predicted transcriptomes: a large population of novel transcripts identified in an Illumina-454 Hydra transcriptome
  42. Injury-induced asymmetric cell death as a driving force for head regeneration in Hydra
  43. Guidelines for the use and interpretation of assays for monitoring autophagy
  44. The Hydra Model System
  45. Hydra, a fruitful model system for 270 years
  46. Hydra, a versatile model to study the homeostatic and developmental functions of cell death
  47. How to use Hydra as a model system to teach biology in the classroom
  48. A two-step process in the emergence of neurogenesis
  49. Injury-induced activation of the MAPK/CREB pathway triggers apoptosis-induced compensatory proliferation in hydra head regeneration
  50. Entre homéostasie et développement, quelles stratégies pour régénérer ?
  51. "A Key Innovation in Animal Evolution, the Emergence of Neurogenesis
  52. Information processing in cells and tissues (IPCAT’2009): From small scale dynamics to understanding systems behavior
  53. The Hydra model: disclosing an apoptosis-driven generator of Wnt-based regeneration
  54. Cell plasticity in homeostasis and regeneration
  55. Autophagy in Hydra: A response to starvation and stress in early animal evolution
  56. Origins of neurogenesis, a cnidarian view
  57. 19-P010 Head-regeneration through cell death and compensatory proliferation in the Hydra
  58. Apoptotic Cells Provide an Unexpected Source of Wnt3 Signaling to Drive Hydra Head Regeneration
  59. More constraint on ParaHox than Hox gene families in early metazoan evolution
  60. Triggering the regeneration and tissue repair programs
  61. Guidelines for the use and interpretation of assays for monitoring autophagy in higher eukaryotes
  62. In Memoriam - Volker Schmid (1939-2008)
  63. Chapter Twenty‐Six Methods to Investigate Autophagy During Starvation and Regeneration in Hydra
  64. Molecular and Cellular Basis of Regeneration and Tissue Repair
  65. RNAi gene silencing affects cell and developmental plasticity in hydra
  66. Head regeneration in wild-type hydra requires de novo neurogenesis
  67. The cAMP response element binding protein (CREB) as an integrative HUB selector in metazoans: Clues from the hydra model system
  68. Hydra, a niche for cell and developmental plasticity
  69. Autophagy and Self-Preservation: A Step Ahead from Cell Plasticity?
  70. Silencing of the hydra serine protease inhibitorKazal1gene mimics the humanSPINK1pancreatic phenotype
  71. Regeneration in Hydra
  72. Evo-devo: Relaxed constraints on Hox gene clustering during evolution
  73. The orphan COUP-TF nuclear receptors are markers for neurogenesis from cnidarians to vertebrates
  74. Neuronal evolution: analysis of regulatory genes in a first-evolved nervous system, the hydra nervous system
  75. Reactivation of developmental programs: The cAMP-response element-binding protein pathway is involved in hydra head regeneration
  76. Cnidarian and Bilaterian Promoters Can Direct GFP Expression in Transfected Hydra
  77. Regeneration in Hydra
  78. Conserved and divergent genes in apex and axis development of cnidarians
  79. Evolution of Antp-class genes and differential expression of Hydra Hox/paraHox genes in anterior patterning
  80. Origin of anterior patterning
  81. Evolution of homeobox genes: Q50 Paired-like genes founded the Paired class
  82. prdl-a, a gene marker for hydra apical differentiation related to triploblasticpaired-like head-specific genes
  83. Signaling molecules in regenerating hydra
  84. The cAMP Response Element Binding protein is involved in hydra regeneration
  85. The role of the cAMP pathway in mediating the effect of head activator on nerve-cell determination and differentiation in hydra
  86. ‘Guessmer’ screening strategy applied to species with AT-rich coding sequences
  87. Teratogenic Agent Information Centre: Fifteen years of counseling and pregnancy follow‐up
  88. HOM/HOX homeobox genes are present in hydra (Chlorohydra viridissima) and are differentially expressed during regeneration.
  89. The segment-specific gene Krox-20 encodes a transcription factor with binding sites in the promoter region of the Hox-1.4 gene.
  90. Murine Homeo-Genes: Some Aspects of their Organisation and Structure
  91. Hox-1.6: a mouse homeo-box-containing gene member of the Hox-1 complex.
  92. DNA sequences homologous to the Drosophila opa repeat are present in murine mRNAs that are differentially expressed in fetuses and adult tissues.
  93. DNA sequences Homologous to the Drosophila opa Repeat are Present in Murine mRNAs That are Differentially Expressed in Fetuses and Adult Tissues
  94. A new homeo-box is present in overlapping cosmid clones which define the mouse Hox-1 locus.
  95. Termination of the ovalbumin gene transcription.