{"type": "root", "children": [{"type": "p", "children": [{"type": "t", "text": "\nSREBF1 is a master transcriptional regulator that governs cholesterol and fatty acid biosynthesis, thereby playing a central role in maintaining lipid homeostasis. Under physiologic conditions, SREBF1 is synthesized as an inactive precursor that—upon receiving appropriate hormonal and nutritional cues such as insulin and growth‐factor–mediated signaling—is proteolytically processed to generate a nuclear form that activates a host of lipogenic genes. It is intricately regulated by diverse mechanisms, including modulation by microRNAs embedded within its host gene (e.g. miR‐33), posttranslational deacetylation by SIRT1, and control by insulin/Akt signaling pathways; these regulatory circuits ensure a tight coordination between nutrient availability and endogenous lipid formation. Moreover, increased expression of SREBF1 has been linked to metabolic disturbances such as nonalcoholic fatty liver disease, in which insulin receptor substrates and other mediators further contribute to dysregulated lipogenesis."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "1", "end_ref": "9"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nIn the context of cancer, SREBF1‐driven lipogenesis sustains rapid cell proliferation and survival. Its activation via oncogenic signaling pathways—such as PI3K–Akt–mTOR, EGFR, and hypoxia‐induced pathways—contributes not only to the synthesis of membrane lipids required for cell division but also to adaptive mechanisms like ferroptosis resistance and chemoresistance. Elevated SREBF1 levels have been implicated in various malignancies including glioblastoma, breast, prostate, and other tumor types, where aberrant lipogenic enzyme expression and altered redox balance foster tumor progression and metastasis. In several preclinical studies, attenuation of SREBF1 function—either genetically or pharmacologically—has been shown to sensitize tumor cells to cell death and limit oncogenic growth."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "10", "end_ref": "19"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nBeyond its canonical role in lipogenesis, SREBF1 is embedded in broader metabolic reprogramming programs that influence whole‐body energy balance and the pathogenesis of metabolic disorders. Genome–wide studies have mapped extensive networks of SREBF1–responsive genes—including those governing the one–carbon cycle and phospholipid synthesis—that modulate cell membrane integrity and signaling. Uric acid–induced endoplasmic reticulum stress and altered insulin signaling have been shown to up–regulate SREBF1 activity thereby promoting hepatic triglyceride accumulation and fatty liver. In addition, paracrine and autocrine factors such as IGF–1 in sebocytes further illustrate how SREBF1 integrates hormonal signals to control lipid output in both health and disease."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "20", "end_ref": "25"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nSREBF1 activity is also finely tuned by non–canonical inputs such as nutrient availability, extracellular matrix stiffness, and cellular stress. Mechanical signals and changes in the cytoskeletal architecture have been found to impinge on SREBF1 activation via alterations in SCAP glycosylation and Lipin–1 regulation, thereby linking physical microenvironmental cues to metabolic regulation. Nutritional factors, including polyunsaturated fatty acids, modulate SREBF1’s proteolytic processing and its auto–regulatory feedback loops, while in neurons, aberrant activation of SREBF1 has been associated with excitotoxic injury—a process that can be mitigated by interference with its upstream regulators. Moreover, agents such as curcumin have demonstrated the capacity to suppress SREBF1 activation, highlighting its potential as a therapeutic target in diverse pathologic contexts ranging from viral infections to cancer."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "26", "end_ref": "33"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nClinically, SREBF1 expression exhibits prognostic significance and serves as a nodal point for cross–talk with other transcriptional and metabolic regulators. Differential isoform activity, coactivator recruitment, and interactions with factors such as PPARγ contribute to distinct transcriptional programs that underlie tumor aggressiveness, stem–like phenotypes, and organ–specific lipotoxicity in conditions ranging from hepatocellular carcinoma and colon cancer to cardiac steatosis in metabolic syndrome. Moreover, insulin–regulated microRNAs have been implicated in modulating SREBF1 levels further linking nutrient sensing to gene expression profiles that predict clinical outcomes. These insights underscore the promise of targeting SREBF1 and its associated signaling networks for therapeutic intervention in metabolic and neoplastic diseases."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "34", "end_ref": "39"}]}, {"type": "t", "text": "\n"}]}, {"type": "rg", "children": [{"type": "r", "ref": 1, "children": [{"type": "t", "text": "S Hani Najafi-Shoushtari, Fjoralba Kristo, Yingxia Li, et al. 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