{"type": "root", "children": [{"type": "p", "children": [{"type": "t", "text": "\nLipoprotein lipase (LPL) is a pivotal enzyme in lipid metabolism that catalyzes the hydrolysis of circulating triglycerides in chylomicrons and very‐low–density lipoproteins, thereby liberating non–esterified fatty acids and monoacylglycerol for tissue uptake and energy production. Beyond its classical catalytic role, LPL also exerts noncatalytic functions that contribute to lipoprotein transport and tissue lipid partitioning. Disruption or deficiency of LPL activity has been closely linked to a range of pathophysiological conditions—including atherosclerosis, chylomicronaemia, obesity, Alzheimer’s disease, diabetes, and even abnormal fetal fatty acid delivery—emphasizing its centrality in both normal physiology and disease states."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "1", "end_ref": "4"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nLPL activity is tightly modulated by interactions with several regulatory proteins. Members of the angiopoietin‐like family—most notably ANGPTL3, ANGPTL4, and ANGPTL8—exert inhibitory effects on LPL by distinct mechanisms, including accelerating irreversible unfolding or promoting proteolytic cleavage. In addition, apolipoproteins such as apoC‐I and apoC‐III can displace LPL from the lipid–water interface, reducing its lipolytic efficiency. A specialized endothelial protein, GPIHBP1, binds LPL, stabilizing its structure and protecting it from inhibitory factors. These coordinated regulatory interactions determine the net LPL activity in different vascular beds and under various nutritional and hormonal conditions."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "5", "end_ref": "11"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nHormonal and tissue‐specific regulatory networks further fine‐tune LPL function. In adipocytes, hormones such as the glucose‐dependent insulinotropic polypeptide (GIP) and adiponectin modulate LPL activity and gene expression to favor triglyceride uptake and storage, while prolactin directly reduces adipose LPL activity—a modulation that is particularly relevant during lactation. In skeletal muscle, differential LPL mRNA and activity levels have been observed with gender and training status, reflecting adaptations in fatty acid utilization. Moreover, in certain hematologic malignancies like B‐cell chronic lymphocytic leukemia, aberrant overexpression of LPL has emerged as a prognostic marker, suggesting additional roles for LPL beyond classical lipid metabolism."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "12", "end_ref": "17"}, {"type": "fg_f", "ref": "2"}, {"type": "fg_f", "ref": "18"}]}, {"type": "t", "text": "\n"}]}, {"type": "t", "text": "\n\n"}, {"type": "p", "children": [{"type": "t", "text": "\nGenetic variation at and near the LPL locus further underscores its importance to human lipid homeostasis. Genome‐wide and candidate gene association studies have identified common single‐nucleotide polymorphisms and rare mutations in LPL—and in genes that regulate its activity—that influence plasma lipid levels, risk of hypertriglyceridaemia, coronary heart disease, and even cerebrovascular disease. These discoveries, spanning diverse populations from European to African American and Amerindian cohorts, reveal that both loss‐of–function and gain‐of–function variations in LPL can modulate disease susceptibility and that polygenic contributions underlie even the severe phenotypes of dyslipidemia. Such findings have important implications for risk assessment and the development of therapeutic strategies targeting LPL pathways."}, {"type": "fg", "children": [{"type": "fg_fs", "start_ref": "19", "end_ref": "38"}]}, {"type": "t", "text": "\n"}]}, {"type": "rg", "children": [{"type": "r", "ref": 1, "children": [{"type": "t", "text": "James R Mead, Scott A Irvine, Dipak P Ramji "}, {"type": "b", "children": [{"type": "t", "text": "Lipoprotein lipase: structure, function, regulation, and role in disease."}]}, {"type": "t", "text": " "}, {"type": "i", "children": [{"type": "t", "text": "J Mol Med (Berl) (2002)"}]}, {"type": "t", "text": " DOI: "}, {"type": "a", "children": [{"type": "t", "text": "10.1007/s00109-002-0384-9"}], "href": "https://doi.org/10.1007/s00109-002-0384-9"}, {"type": "t", "text": " PMID: "}, {"type": "a", "children": [{"type": "t", "text": "12483461"}], "href": "https://pubmed.ncbi.nlm.nih.gov/12483461"}]}, {"type": "r", "ref": 2, "children": [{"type": "t", "text": "M Gauster, U Hiden, A Blaschitz, et al. 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