======= CFLAR ======= == Gene Information == * **Official Symbol**: CFLAR * **Official Name**: CASP8 and FADD like apoptosis regulator * **Aliases and Previous Symbols**: N/A * **Entrez ID**: [[https://www.ncbi.nlm.nih.gov/gene/?term=8837|8837]] * **UniProt**: [[https://www.uniprot.org/uniprot/O15519|O15519]] * **Interactions**: [[https://thebiogrid.org/search.php?search=CFLAR&organism=9606|BioGRID]] * **PubMed articles**: [[https://www.ncbi.nlm.nih.gov/pubmed/?term=gene%20CFLAR|Open PubMed]] * **OMIM**: [[https://omim.org/entry/603599|Open OMIM]] == Function Summary == * **Entrez Summary**: The protein encoded by this gene is a regulator of apoptosis and is structurally similar to caspase-8. However, the encoded protein lacks caspase activity and appears to be itself cleaved into two peptides by caspase-8. Several transcript variants encoding different isoforms have been found for this gene, and partial evidence for several more variants exists. [provided by RefSeq, Feb 2011]. * **UniProt Summary**: N/A |DED| |Peptidase C14| |negative regulation of hepatocyte apoptotic process| |regulation of hepatocyte apoptotic process| |negative regulation of myoblast fusion| |negative regulation of syncytium formation by plasma membrane fusion| |positive regulation of glomerular mesangial cell proliferation| |ripoptosome| |CD95 death-inducing signaling complex| |death-inducing signaling complex| |skeletal muscle atrophy| |positive regulation of cell proliferation involved in kidney development| |striated muscle atrophy| |positive regulation of hepatocyte proliferation| |muscle atrophy| |regulation of glomerular mesangial cell proliferation| |peptidase activator activity| |positive regulation of glomerulus development| |skeletal muscle adaptation| |negative regulation of necroptotic process| |negative regulation of programmed necrotic cell death| |regulation of skeletal muscle satellite cell proliferation| |regulation of skeletal muscle cell proliferation| |regulation of hepatocyte proliferation| |regulation of cell proliferation involved in kidney development| |death receptor binding| |regulation of glomerulus development| |cysteine-type endopeptidase activity involved in apoptotic process| |negative regulation of necrotic cell death| |cellular response to nitric oxide| |skeletal myofibril assembly| |regulation of necroptotic process| |cellular response to reactive nitrogen species| |response to nitric oxide| |negative regulation of myotube differentiation| |regulation of programmed necrotic cell death| |positive regulation of extracellular matrix organization| |regulation of myoblast fusion| |negative regulation of cardiac muscle cell apoptotic process| |negative regulation of striated muscle cell apoptotic process| |negative regulation of reactive oxygen species biosynthetic process| |striated muscle adaptation| |regulation of necrotic cell death| |regulation of syncytium formation by plasma membrane fusion| |cellular response to dexamethasone stimulus| |muscle adaptation| |skeletal muscle tissue regeneration| |cellular response to estradiol stimulus| |negative regulation of extrinsic apoptotic signaling pathway via death domain receptors| |negative regulation of muscle cell apoptotic process| |regulation of cardiac muscle cell apoptotic process| |regulation of extracellular matrix organization| |negative regulation of striated muscle cell differentiation| |response to testosterone| |regulation of striated muscle cell apoptotic process| |response to dexamethasone| |positive regulation of kidney development| |negative regulation of epithelial cell apoptotic process| |cellular response to epidermal growth factor stimulus| |enzyme activator activity| |response to epidermal growth factor| |response to bronchodilator| |negative regulation of reactive oxygen species metabolic process| |negative regulation of muscle cell differentiation| |regulation of kidney development| |regulation of extrinsic apoptotic signaling pathway via death domain receptors| |cellular response to glucocorticoid stimulus| |regulation of myotube differentiation| |cellular response to corticosteroid stimulus| |tissue regeneration| |myofibril assembly| |regulation of muscle cell apoptotic process| |negative regulation of cellular response to transforming growth factor beta stimulus| |regulation of epithelial cell apoptotic process| |positive regulation of animal organ morphogenesis| |negative regulation of cysteine-type endopeptidase activity involved in apoptotic process| |regulation of reactive oxygen species biosynthetic process| |negative regulation of cysteine-type endopeptidase activity| |cellular response to ketone| |response to antineoplastic agent| |regulation of striated muscle cell differentiation| |negative regulation of extrinsic apoptotic signaling pathway| |protease binding| |cellular component assembly involved in morphogenesis| |actomyosin structure organization| |regulation of cellular response to transforming growth factor beta stimulus| |skeletal muscle tissue development| |cellular response to reactive oxygen species| |skeletal muscle organ development| |striated muscle cell development| |response to estradiol| |response to glucocorticoid| |negative regulation of cellular response to growth factor stimulus| |muscle cell development| |positive regulation of NF-kappaB transcription factor activity| |regulation of muscle cell differentiation| |regulation of extrinsic apoptotic signaling pathway| |regeneration| |response to corticosteroid| |cellular response to insulin stimulus| |regulation of reactive oxygen species metabolic process| |positive regulation of vasculature development| |positive regulation of I-kappaB kinase/NF-kappaB signaling| |cellular response to xenobiotic stimulus| |cellular response to steroid hormone stimulus| |cellular response to hypoxia| |positive regulation of epithelial cell proliferation| |positive regulation of peptidase activity| |response to ketone| |response to reactive oxygen species| |cellular response to decreased oxygen levels| |striated muscle cell differentiation| |positive regulation of ERK1 and ERK2 cascade| |cellular response to oxygen levels| |regulation of cysteine-type endopeptidase activity involved in apoptotic process| |cellular response to inorganic substance| |negative regulation of apoptotic signaling pathway| |membrane raft| |response to insulin| |regulation of I-kappaB kinase/NF-kappaB signaling| |cellular response to oxidative stress| |regulation of cysteine-type endopeptidase activity| |negative regulation of endopeptidase activity| |muscle cell differentiation| |negative regulation of peptidase activity| |regulation of animal organ morphogenesis| |positive regulation of DNA-binding transcription factor activity| |protein-containing complex binding| |cellular response to peptide hormone stimulus| |regulation of cellular response to growth factor stimulus| |positive regulation of neuron projection development| |striated muscle tissue development| |regulation of ERK1 and ERK2 cascade| |muscle organ development| |muscle tissue development| |muscle system process| |response to xenobiotic stimulus| |regulation of vasculature development| |cellular response to peptide| |response to steroid hormone| |regulation of epithelial cell proliferation| |response to hypoxia| |negative regulation of proteolysis| |response to decreased oxygen levels| |positive regulation of proteolysis| |positive regulation of neuron differentiation| |response to oxygen levels| |positive regulation of cell projection organization| |response to oxidative stress| |developmental growth| |response to peptide hormone| |growth| |regulation of apoptotic signaling pathway| |cellular response to drug| |regulation of endopeptidase activity| |regulation of DNA-binding transcription factor activity| |regulation of peptidase activity| |negative regulation of hydrolase activity| |supramolecular fiber organization| |positive regulation of neurogenesis| |response to peptide| |muscle structure development| |wound healing| |protein heterodimerization activity| |actin cytoskeleton organization| |regulation of neuron projection development| |cellular response to growth factor stimulus| |cellular response to lipid| |response to growth factor| |response to inorganic substance| |positive regulation of nervous system development| |cellular response to organic cyclic compound| |positive regulation of cell development| |positive regulation of MAPK cascade| |actin filament-based process| |response to wounding| |cellular response to organonitrogen compound| |cellular response to hormone stimulus| |regulation of neuron differentiation| |cellular response to nitrogen compound| |response to bacterium| |regulation of plasma membrane bounded cell projection organization| |viral process| |negative regulation of cellular component organization| |regulation of cell projection organization| |negative regulation of cell differentiation| |regulation of proteolysis| |regulation of MAPK cascade| |organelle assembly| |positive regulation of hydrolase activity| |symbiotic process| |negative regulation of catalytic activity| |regulation of neurogenesis| |interspecies interaction between organisms| |cellular component morphogenesis| |response to lipid| |negative regulation of apoptotic process| |anatomical structure formation involved in morphogenesis| |negative regulation of programmed cell death| |response to hormone| |positive regulation of cell population proliferation| |response to organic cyclic compound| |apoptotic process| |regulation of nervous system development| |regulation of cell development| |negative regulation of developmental process| |positive regulation of cell differentiation| |negative regulation of cell death| |response to organonitrogen compound| |positive regulation of protein phosphorylation| |response to drug| |positive regulation of intracellular signal transduction| |negative regulation of cellular protein metabolic process| |programmed cell death| |cellular response to oxygen-containing compound| |positive regulation of phosphorylation| |regulation of anatomical structure morphogenesis| |response to nitrogen compound| |cell death| |negative regulation of protein metabolic process| |cytoskeleton organization| |positive regulation of phosphorus metabolic process| |positive regulation of phosphate metabolic process| |negative regulation of molecular function| |response to abiotic stimulus| |positive regulation of cellular component organization| |cellular response to endogenous stimulus| |positive regulation of protein modification process| |negative regulation of signal transduction| |proteolysis| |regulation of hydrolase activity| |response to other organism| |response to external biotic stimulus| |response to biotic stimulus| |negative regulation of cell communication| |negative regulation of signaling| |positive regulation of developmental process| |positive regulation of catalytic activity| |regulation of protein phosphorylation| |response to endogenous stimulus| |generation of neurons| |regulation of apoptotic process| |negative regulation of biosynthetic process| |response to oxygen-containing compound| |regulation of programmed cell death| |regulation of phosphorylation| |positive regulation of cellular protein metabolic process| |regulation of cell population proliferation| |negative regulation of response to stimulus| |neurogenesis| |cell development| |positive regulation of signal transduction| |regulation of cell death| |cellular response to stress| |positive regulation of protein metabolic process| |positive regulation of multicellular organismal process| |tissue development| |positive regulation of molecular function| |regulation of phosphate metabolic process| |regulation of phosphorus metabolic process| |regulation of cell differentiation| |positive regulation of cell communication| |positive regulation of signaling| |regulation of intracellular signal transduction| |regulation of protein modification process| |system process| \\ === CRISPR Data === ^Screen^Score^ |[[:results:exp329|Hydroxyurea 100μM R07 exp329]]|-3.66| |[[:results:exp533|TNF-alpha 44ng/ml R08 exp533]]|-2.94| |[[:results:exp35|TRAIL 5ng/ml R00 exp35]]|-2.49| |[[:results:exp515|PU-H71 1μM R08 exp515]]|-2.44| |[[:results:exp36|TRAIL 50ng/ml R00 exp36]]|-2.21| |[[:results:exp531|THZ1 0.06μM R08 exp531]]|-2.2| |[[:results:exp441|GSK-J4 1.5μM R08 exp441]]|-2.1| |[[:results:exp275|Citral 75μM R06 exp275]]|-2.03| |[[:results:exp335|Aminopterin 0.005μM R07 exp335]]|-1.95| |[[:results:exp274|Citral 50μM R06 exp274]]|-1.77| |[[:results:exp199|Etoposide 0.3μM R05 exp199]]|-1.76| |[[:results:exp468|CB-5083 0.4μM R08 exp468]]|-1.75| |[[:results:exp440|Aphidicolin 0.4μM R08 exp440]]|-1.73| |[[:results:exp169|BH1 1μM R04 exp169]]|-1.7| No correlation found to any other genes in chemogenomics. Global Fraction of Cell Lines Where Essential: 204/739 ^Tissue^Fraction Of Cell Lines Where Essential^ |1290807.0|0/1| |909776.0|0/1| |bile duct|16/28| |blood|6/28| |bone|0/26| |breast|9/33| |central nervous system|6/56| |cervix|0/4| |colorectal|5/17| |esophagus|1/13| |fibroblast|0/1| |gastric|2/16| |kidney|14/21| |liver|6/20| |lung|30/75| |lymphocyte|7/16| |ovary|12/26| |pancreas|12/24| |peripheral nervous system|1/16| |plasma cell|11/15| |prostate|0/1| |skin|2/24| |soft tissue|1/9| |thyroid|0/2| |upper aerodigestive|3/22| |urinary tract|11/29| |uterus|1/5| == Essentiality in NALM6 == * **Essentiality Rank**: 10914 * **Expression level (log2 read counts)**: 6.7 {{:chemogenomics:nalm6 dist.png?nolink |}}