Keyword Search: Gene Ontology, PubMed or Web (Google)
PDB Keywords for 3OUW
(Keywords from the PDB file are used here. They may or may not correspond to GO term names).
- Wnt Beta-Catenin Signaling Pathway|Tcf|Lef|Transcription Factors|Phosphorylation|Protein Binding [GO] [PubMed] [Google]
GO Keywords for 3OUW
(Here all GO term names are given that map directly to this particular structure).
- negative regulation of transcription by RNA polymerase II [GO] [PubMed] [Google]
- embryonic axis specification [GO] [PubMed] [Google]
- cell morphogenesis involved in differentiation [GO] [PubMed] [Google]
- spindle pole [GO] [PubMed] [Google]
- RNA polymerase II transcription factor binding [GO] [PubMed] [Google]
- RNA polymerase II activating transcription factor binding [GO] [PubMed] [Google]
- skeletal system development [GO] [PubMed] [Google]
- branching involved in blood vessel morphogenesis [GO] [PubMed] [Google]
- vasculogenesis [GO] [PubMed] [Google]
- branching involved in ureteric bud morphogenesis [GO] [PubMed] [Google]
- in utero embryonic development [GO] [PubMed] [Google]
- gastrulation with mouth forming second [GO] [PubMed] [Google]
- endoderm formation [GO] [PubMed] [Google]
- cell fate specification [GO] [PubMed] [Google]
- cell fate determination [GO] [PubMed] [Google]
- endodermal cell fate commitment [GO] [PubMed] [Google]
- neuron migration [GO] [PubMed] [Google]
- kidney development [GO] [PubMed] [Google]
- neural plate development [GO] [PubMed] [Google]
- liver development [GO] [PubMed] [Google]
- vasculature development [GO] [PubMed] [Google]
- positive regulation of neuroblast proliferation [GO] [PubMed] [Google]
- positive regulation of mesenchymal cell proliferation [GO] [PubMed] [Google]
- lens morphogenesis in camera-type eye [GO] [PubMed] [Google]
- ventricular compact myocardium morphogenesis [GO] [PubMed] [Google]
- regulation of secondary heart field cardioblast proliferation [GO] [PubMed] [Google]
- metanephros morphogenesis [GO] [PubMed] [Google]
- negative regulation of mesenchymal to epithelial transition involved in metanephros morphogenesis [GO] [PubMed] [Google]
- DNA binding [GO] [PubMed] [Google]
- chromatin binding [GO] [PubMed] [Google]
- double-stranded DNA binding [GO] [PubMed] [Google]
- DNA-binding transcription factor activity [GO] [PubMed] [Google]
- transcription coactivator activity [GO] [PubMed] [Google]
- obsolete signal transducer activity [GO] [PubMed] [Google]
- protein binding [GO] [PubMed] [Google]
- nucleus [GO] [PubMed] [Google]
- transcription factor complex [GO] [PubMed] [Google]
- nuclear euchromatin [GO] [PubMed] [Google]
- cytoplasm [GO] [PubMed] [Google]
- centrosome [GO] [PubMed] [Google]
- microtubule organizing center [GO] [PubMed] [Google]
- cytosol [GO] [PubMed] [Google]
- cytoskeleton [GO] [PubMed] [Google]
- plasma membrane [GO] [PubMed] [Google]
- cell-cell junction [GO] [PubMed] [Google]
- adherens junction [GO] [PubMed] [Google]
- cell-cell adherens junction [GO] [PubMed] [Google]
- fascia adherens [GO] [PubMed] [Google]
- bicellular tight junction [GO] [PubMed] [Google]
- focal adhesion [GO] [PubMed] [Google]
- cell cortex [GO] [PubMed] [Google]
- transcription, DNA-templated [GO] [PubMed] [Google]
- regulation of transcription, DNA-templated [GO] [PubMed] [Google]
- regulation of transcription by RNA polymerase II [GO] [PubMed] [Google]
- cell adhesion [GO] [PubMed] [Google]
- cell-matrix adhesion [GO] [PubMed] [Google]
- chemical synaptic transmission [GO] [PubMed] [Google]
- ectoderm development [GO] [PubMed] [Google]
- nervous system development [GO] [PubMed] [Google]
- glial cell fate determination [GO] [PubMed] [Google]
- midgut development [GO] [PubMed] [Google]
- heart development [GO] [PubMed] [Google]
- protein C-terminus binding [GO] [PubMed] [Google]
- transcription factor binding [GO] [PubMed] [Google]
- cell proliferation [GO] [PubMed] [Google]
- positive regulation of cell proliferation [GO] [PubMed] [Google]
- negative regulation of cell proliferation [GO] [PubMed] [Google]
- response to hormone [GO] [PubMed] [Google]
- anterior/posterior axis specification [GO] [PubMed] [Google]
- dorsal/ventral axis specification [GO] [PubMed] [Google]
- dorsal/ventral pattern formation [GO] [PubMed] [Google]
- proximal/distal pattern formation [GO] [PubMed] [Google]
- cellular process [GO] [PubMed] [Google]
- regulation of gene expression [GO] [PubMed] [Google]
- positive regulation of gene expression [GO] [PubMed] [Google]
- negative regulation of gene expression [GO] [PubMed] [Google]
- positive regulation of epithelial to mesenchymal transition [GO] [PubMed] [Google]
- positive regulation of heparan sulfate proteoglycan biosynthetic process [GO] [PubMed] [Google]
- Schwann cell proliferation [GO] [PubMed] [Google]
- response to organic cyclic compound [GO] [PubMed] [Google]
- intercalated disc [GO] [PubMed] [Google]
- response to activity [GO] [PubMed] [Google]
- membrane [GO] [PubMed] [Google]
- Wnt signaling pathway [GO] [PubMed] [Google]
- basolateral plasma membrane [GO] [PubMed] [Google]
- lateral plasma membrane [GO] [PubMed] [Google]
- morphogenesis of embryonic epithelium [GO] [PubMed] [Google]
- catenin complex [GO] [PubMed] [Google]
- flotillin complex [GO] [PubMed] [Google]
- stem cell population maintenance [GO] [PubMed] [Google]
- enzyme binding [GO] [PubMed] [Google]
- kinase binding [GO] [PubMed] [Google]
- protein kinase binding [GO] [PubMed] [Google]
- protein phosphatase binding [GO] [PubMed] [Google]
- layer formation in cerebral cortex [GO] [PubMed] [Google]
- central nervous system vasculogenesis [GO] [PubMed] [Google]
- hair cycle process [GO] [PubMed] [Google]
- Z disc [GO] [PubMed] [Google]
- lamellipodium [GO] [PubMed] [Google]
- cell junction [GO] [PubMed] [Google]
- hemopoiesis [GO] [PubMed] [Google]
- cell differentiation [GO] [PubMed] [Google]
- neuron differentiation [GO] [PubMed] [Google]
- T cell differentiation [GO] [PubMed] [Google]
- osteoclast differentiation [GO] [PubMed] [Google]
- lung development [GO] [PubMed] [Google]
- estrogen receptor binding [GO] [PubMed] [Google]
- male genitalia development [GO] [PubMed] [Google]
- regulation of epithelial cell differentiation [GO] [PubMed] [Google]
- positive regulation of epithelial cell differentiation [GO] [PubMed] [Google]
- beta-catenin destruction complex [GO] [PubMed] [Google]
- forebrain development [GO] [PubMed] [Google]
- midbrain development [GO] [PubMed] [Google]
- hindbrain development [GO] [PubMed] [Google]
- regulation of centriole-centriole cohesion [GO] [PubMed] [Google]
- pancreas development [GO] [PubMed] [Google]
- hair follicle morphogenesis [GO] [PubMed] [Google]
- cell projection membrane [GO] [PubMed] [Google]
- microvillus membrane [GO] [PubMed] [Google]
- regulation of myelination [GO] [PubMed] [Google]
- positive regulation of telomere maintenance via telomerase [GO] [PubMed] [Google]
- negative regulation of chondrocyte differentiation [GO] [PubMed] [Google]
- response to estradiol [GO] [PubMed] [Google]
- protein-DNA complex [GO] [PubMed] [Google]
- T cell differentiation in thymus [GO] [PubMed] [Google]
- negative regulation of protein sumoylation [GO] [PubMed] [Google]
- response to cytokine [GO] [PubMed] [Google]
- adherens junction organization [GO] [PubMed] [Google]
- adherens junction assembly [GO] [PubMed] [Google]
- protein localization to cell surface [GO] [PubMed] [Google]
- cellular protein localization [GO] [PubMed] [Google]
- Scrib-APC-beta-catenin complex [GO] [PubMed] [Google]
- embryonic heart tube development [GO] [PubMed] [Google]
- genitalia morphogenesis [GO] [PubMed] [Google]
- embryonic forelimb morphogenesis [GO] [PubMed] [Google]
- embryonic hindlimb morphogenesis [GO] [PubMed] [Google]
- ionotropic glutamate receptor binding [GO] [PubMed] [Google]
- nuclear hormone receptor binding [GO] [PubMed] [Google]
- embryonic skeletal limb joint morphogenesis [GO] [PubMed] [Google]
- regulation of cell proliferation [GO] [PubMed] [Google]
- regulation of T cell proliferation [GO] [PubMed] [Google]
- odontogenesis of dentin-containing tooth [GO] [PubMed] [Google]
- response to drug [GO] [PubMed] [Google]
- embryonic digit morphogenesis [GO] [PubMed] [Google]
- regulation of apoptotic process [GO] [PubMed] [Google]
- neuron projection [GO] [PubMed] [Google]
- positive regulation of apoptotic process [GO] [PubMed] [Google]
- positive regulation of I-kappaB kinase/NF-kappaB signaling [GO] [PubMed] [Google]
- dendritic shaft [GO] [PubMed] [Google]
- apical junction complex [GO] [PubMed] [Google]
- positive regulation of MAPK cascade [GO] [PubMed] [Google]
- positive regulation of neuron apoptotic process [GO] [PubMed] [Google]
- skin development [GO] [PubMed] [Google]
- response to estrogen [GO] [PubMed] [Google]
- transcription regulatory region DNA binding [GO] [PubMed] [Google]
- ion channel binding [GO] [PubMed] [Google]
- canonical Wnt signaling pathway involved in positive regulation of epithelial to mesenchymal transition [GO] [PubMed] [Google]
- canonical Wnt signaling pathway involved in negative regulation of apoptotic process [GO] [PubMed] [Google]
- cellular response to fibroblast growth factor stimulus [GO] [PubMed] [Google]
- nuclear transcription factor complex [GO] [PubMed] [Google]
- apical part of cell [GO] [PubMed] [Google]
- synapse [GO] [PubMed] [Google]
- alpha-catenin binding [GO] [PubMed] [Google]
- cadherin binding [GO] [PubMed] [Google]
- myoblast differentiation [GO] [PubMed] [Google]
- bone resorption [GO] [PubMed] [Google]
- regulation of cell differentiation [GO] [PubMed] [Google]
- negative regulation of cell differentiation [GO] [PubMed] [Google]
- positive regulation of endothelial cell differentiation [GO] [PubMed] [Google]
- regulation of osteoblast differentiation [GO] [PubMed] [Google]
- positive regulation of osteoblast differentiation [GO] [PubMed] [Google]
- regulation of osteoclast differentiation [GO] [PubMed] [Google]
- negative regulation of osteoclast differentiation [GO] [PubMed] [Google]
- positive regulation of fibroblast growth factor receptor signaling pathway [GO] [PubMed] [Google]
- negative regulation of transcription, DNA-templated [GO] [PubMed] [Google]
- positive regulation of transcription, DNA-templated [GO] [PubMed] [Google]
- positive regulation of transcription by RNA polymerase II [GO] [PubMed] [Google]
- negative regulation of mitotic cell cycle, embryonic [GO] [PubMed] [Google]
- SMAD binding [GO] [PubMed] [Google]
- response to cadmium ion [GO] [PubMed] [Google]
- chromatin-mediated maintenance of transcription [GO] [PubMed] [Google]
- cell maturation [GO] [PubMed] [Google]
- perinuclear region of cytoplasm [GO] [PubMed] [Google]
- synaptic vesicle transport [GO] [PubMed] [Google]
- animal organ development [GO] [PubMed] [Google]
- thymus development [GO] [PubMed] [Google]
- oocyte development [GO] [PubMed] [Google]
- embryonic foregut morphogenesis [GO] [PubMed] [Google]
- positive regulation of skeletal muscle tissue development [GO] [PubMed] [Google]
- regulation of smooth muscle cell proliferation [GO] [PubMed] [Google]
- negative regulation of oligodendrocyte differentiation [GO] [PubMed] [Google]
- synapse organization [GO] [PubMed] [Google]
- nitric-oxide synthase binding [GO] [PubMed] [Google]
- positive regulation of DNA-binding transcription factor activity [GO] [PubMed] [Google]
- smooth muscle cell differentiation [GO] [PubMed] [Google]
- protein heterooligomerization [GO] [PubMed] [Google]
- regulation of histone H3-K4 methylation [GO] [PubMed] [Google]
- positive regulation of telomerase activity [GO] [PubMed] [Google]
- cardiac muscle cell proliferation [GO] [PubMed] [Google]
- oviduct development [GO] [PubMed] [Google]
- canonical Wnt signaling pathway [GO] [PubMed] [Google]
- limb development [GO] [PubMed] [Google]
- trachea morphogenesis [GO] [PubMed] [Google]
- trachea formation [GO] [PubMed] [Google]
- epithelial tube branching involved in lung morphogenesis [GO] [PubMed] [Google]
- lung cell differentiation [GO] [PubMed] [Google]
- lung-associated mesenchyme development [GO] [PubMed] [Google]
- mesenchyme development [GO] [PubMed] [Google]
- lung induction [GO] [PubMed] [Google]
- epithelial cell differentiation involved in prostate gland development [GO] [PubMed] [Google]
- positive regulation of epithelial cell proliferation involved in prostate gland development [GO] [PubMed] [Google]
- hair follicle placode formation [GO] [PubMed] [Google]
- mesenchymal cell proliferation involved in lung development [GO] [PubMed] [Google]
- cardiac vascular smooth muscle cell differentiation [GO] [PubMed] [Google]
- coronary artery morphogenesis [GO] [PubMed] [Google]
- epicardium-derived cardiac vascular smooth muscle cell differentiation [GO] [PubMed] [Google]
- positive regulation of branching involved in lung morphogenesis [GO] [PubMed] [Google]
- endothelial tube morphogenesis [GO] [PubMed] [Google]
- fungiform papilla formation [GO] [PubMed] [Google]
- canonical Wnt signaling pathway involved in positive regulation of cardiac outflow tract cell proliferation [GO] [PubMed] [Google]
- sympathetic ganglion development [GO] [PubMed] [Google]
- cranial ganglion development [GO] [PubMed] [Google]
- extracellular exosome [GO] [PubMed] [Google]
- beta-catenin-TCF7L2 complex [GO] [PubMed] [Google]
- I-SMAD binding [GO] [PubMed] [Google]
- R-SMAD binding [GO] [PubMed] [Google]
- repressing transcription factor binding [GO] [PubMed] [Google]
- regulation of centromeric sister chromatid cohesion [GO] [PubMed] [Google]
- cellular response to mechanical stimulus [GO] [PubMed] [Google]
- cellular response to lithium ion [GO] [PubMed] [Google]
- cellular response to growth factor stimulus [GO] [PubMed] [Google]
- catenin-TCF7L2 complex [GO] [PubMed] [Google]
- cellular response to indole-3-methanol [GO] [PubMed] [Google]
- cell periphery [GO] [PubMed] [Google]
- renal system development [GO] [PubMed] [Google]
- renal vesicle formation [GO] [PubMed] [Google]
- renal inner medulla development [GO] [PubMed] [Google]
- renal outer medulla development [GO] [PubMed] [Google]
- nephron tubule formation [GO] [PubMed] [Google]
- mesenchyme morphogenesis [GO] [PubMed] [Google]
- regulation of nephron tubule epithelial cell differentiation [GO] [PubMed] [Google]
- regulation of calcium ion import [GO] [PubMed] [Google]
- negative regulation of neuron death [GO] [PubMed] [Google]
- regulation of histone demethylase activity (H3-K4 specific) [GO] [PubMed] [Google]
- regulation of chromatin-mediated maintenance of transcription [GO] [PubMed] [Google]
- positive regulation of chromatin-mediated maintenance of transcription [GO] [PubMed] [Google]
- regulation of euchromatin binding [GO] [PubMed] [Google]
- regulation of core promoter binding [GO] [PubMed] [Google]
- beta-catenin destruction complex disassembly [GO] [PubMed] [Google]
- cranial skeletal system development [GO] [PubMed] [Google]
- midbrain dopaminergic neuron differentiation [GO] [PubMed] [Google]
- euchromatin binding [GO] [PubMed] [Google]
- histone methyltransferase binding [GO] [PubMed] [Google]
- cellular response to insulin-like growth factor stimulus [GO] [PubMed] [Google]
- embryonic brain development [GO] [PubMed] [Google]
- dorsal root ganglion development [GO] [PubMed] [Google]
- beta-catenin-TCF complex [GO] [PubMed] [Google]
- Wnt signalosome [GO] [PubMed] [Google]
- regulation of protein localization to cell surface [GO] [PubMed] [Google]
- positive regulation of determination of dorsal identity [GO] [PubMed] [Google]
- positive regulation of DNA-templated transcription, initiation [GO] [PubMed] [Google]
- negative regulation of apoptotic signaling pathway [GO] [PubMed] [Google]
- negative regulation of transcription by RNA polymerase II [GO] [PubMed] [Google]
- RNA polymerase II regulatory region sequence-specific DNA binding [GO] [PubMed] [Google]
- RNA polymerase II proximal promoter sequence-specific DNA binding [GO] [PubMed] [Google]
- proximal promoter DNA-binding transcription activator activity, RNA polymerase II-specific [GO] [PubMed] [Google]
- DNA-binding transcription activator activity, RNA polymerase II-specific [GO] [PubMed] [Google]
- branching involved in blood vessel morphogenesis [GO] [PubMed] [Google]
- osteoblast differentiation [GO] [PubMed] [Google]
- neural crest cell migration [GO] [PubMed] [Google]
- somitogenesis [GO] [PubMed] [Google]
- kidney development [GO] [PubMed] [Google]
- epithelial to mesenchymal transition [GO] [PubMed] [Google]
- vasculature development [GO] [PubMed] [Google]
- sprouting angiogenesis [GO] [PubMed] [Google]
- DNA binding [GO] [PubMed] [Google]
- chromatin binding [GO] [PubMed] [Google]
- DNA-binding transcription factor activity [GO] [PubMed] [Google]
- transcription factor activity, RNA polymerase II distal enhancer sequence-specific binding [GO] [PubMed] [Google]
- protein binding [GO] [PubMed] [Google]
- nucleus [GO] [PubMed] [Google]
- transcription factor complex [GO] [PubMed] [Google]
- cytoplasm [GO] [PubMed] [Google]
- transcription, DNA-templated [GO] [PubMed] [Google]
- regulation of transcription, DNA-templated [GO] [PubMed] [Google]
- regulation of transcription by RNA polymerase II [GO] [PubMed] [Google]
- transcription by RNA polymerase II [GO] [PubMed] [Google]
- cell adhesion [GO] [PubMed] [Google]
- beta-catenin binding [GO] [PubMed] [Google]
- transcription factor binding [GO] [PubMed] [Google]
- positive regulation of cell proliferation [GO] [PubMed] [Google]
- DNA binding, bending [GO] [PubMed] [Google]
- response to lithium ion [GO] [PubMed] [Google]
- positive regulation of gene expression [GO] [PubMed] [Google]
- positive regulation of epithelial to mesenchymal transition [GO] [PubMed] [Google]
- response to organic cyclic compound [GO] [PubMed] [Google]
- Wnt signaling pathway [GO] [PubMed] [Google]
- dentate gyrus development [GO] [PubMed] [Google]
- hippocampus development [GO] [PubMed] [Google]
- hypothalamus development [GO] [PubMed] [Google]
- forebrain radial glial cell differentiation [GO] [PubMed] [Google]
- forebrain neuroblast division [GO] [PubMed] [Google]
- forebrain neuron differentiation [GO] [PubMed] [Google]
- formation of radial glial scaffolds [GO] [PubMed] [Google]
- regulation of cell-cell adhesion [GO] [PubMed] [Google]
- negative regulation of cell-cell adhesion [GO] [PubMed] [Google]
- positive regulation of cell-cell adhesion [GO] [PubMed] [Google]
- regulation of Wnt signaling pathway [GO] [PubMed] [Google]
- neutrophil differentiation [GO] [PubMed] [Google]
- estrogen receptor activity [GO] [PubMed] [Google]
- positive regulation of cell growth [GO] [PubMed] [Google]
- embryonic limb morphogenesis [GO] [PubMed] [Google]
- estrogen receptor binding [GO] [PubMed] [Google]
- positive regulation of cell migration [GO] [PubMed] [Google]
- BMP signaling pathway [GO] [PubMed] [Google]
- positive regulation of granulocyte differentiation [GO] [PubMed] [Google]
- mammary gland development [GO] [PubMed] [Google]
- animal organ regeneration [GO] [PubMed] [Google]
- negative regulation of interleukin-13 production [GO] [PubMed] [Google]
- negative regulation of interleukin-4 production [GO] [PubMed] [Google]
- negative regulation of interleukin-5 production [GO] [PubMed] [Google]
- protein-DNA complex [GO] [PubMed] [Google]
- T cell receptor V(D)J recombination [GO] [PubMed] [Google]
- enhancer binding [GO] [PubMed] [Google]
- B cell proliferation [GO] [PubMed] [Google]
- histone binding [GO] [PubMed] [Google]
- odontogenesis of dentin-containing tooth [GO] [PubMed] [Google]
- histone deacetylase binding [GO] [PubMed] [Google]
- cysteine-type endopeptidase inhibitor activity involved in apoptotic process [GO] [PubMed] [Google]
- negative regulation of apoptotic process [GO] [PubMed] [Google]
- negative regulation of cysteine-type endopeptidase activity involved in apoptotic process [GO] [PubMed] [Google]
- negative regulation of DNA binding [GO] [PubMed] [Google]
- steroid hormone mediated signaling pathway [GO] [PubMed] [Google]
- sequence-specific DNA binding [GO] [PubMed] [Google]
- tongue development [GO] [PubMed] [Google]
- skin development [GO] [PubMed] [Google]
- positive regulation by host of viral transcription [GO] [PubMed] [Google]
- histone H3 acetylation [GO] [PubMed] [Google]
- histone H4 acetylation [GO] [PubMed] [Google]
- transcription regulatory region DNA binding [GO] [PubMed] [Google]
- T-helper 1 cell differentiation [GO] [PubMed] [Google]
- gamma-catenin binding [GO] [PubMed] [Google]
- negative regulation of striated muscle tissue development [GO] [PubMed] [Google]
- negative regulation of transcription, DNA-templated [GO] [PubMed] [Google]
- positive regulation of transcription, DNA-templated [GO] [PubMed] [Google]
- positive regulation of transcription by RNA polymerase II [GO] [PubMed] [Google]
- alpha-beta T cell differentiation [GO] [PubMed] [Google]
- eye pigmentation [GO] [PubMed] [Google]
- paraxial mesoderm formation [GO] [PubMed] [Google]
- cell development [GO] [PubMed] [Google]
- muscle fiber development [GO] [PubMed] [Google]
- sensory perception of taste [GO] [PubMed] [Google]
- roof of mouth development [GO] [PubMed] [Google]
- anatomical structure regression [GO] [PubMed] [Google]
- canonical Wnt signaling pathway [GO] [PubMed] [Google]
- face morphogenesis [GO] [PubMed] [Google]
- cell chemotaxis [GO] [PubMed] [Google]
- apoptotic process involved in morphogenesis [GO] [PubMed] [Google]
- chorio-allantoic fusion [GO] [PubMed] [Google]
- trachea gland development [GO] [PubMed] [Google]
- armadillo repeat domain binding [GO] [PubMed] [Google]
- C2H2 zinc finger domain binding [GO] [PubMed] [Google]
- cellular response to cytokine stimulus [GO] [PubMed] [Google]
- cellular response to interleukin-4 [GO] [PubMed] [Google]
- positive regulation of cell proliferation in bone marrow [GO] [PubMed] [Google]
- negative regulation of apoptotic process in bone marrow [GO] [PubMed] [Google]
- odontoblast differentiation [GO] [PubMed] [Google]
- negative regulation of estrogen receptor binding [GO] [PubMed] [Google]
- positive regulation of cell cycle process [GO] [PubMed] [Google]
- negative regulation of canonical Wnt signaling pathway [GO] [PubMed] [Google]
- apoptotic process involved in blood vessel morphogenesis [GO] [PubMed] [Google]
- beta-catenin-TCF complex [GO] [PubMed] [Google]
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J%20recombination%22){kind=link}
