Circulating Sphingolipids and Glucose Homeostasis: An Update

被引:10
|
作者
Ali-Berrada, Sarah [1 ,2 ]
Guitton, Jeanne [3 ]
Tan-Chen, Sophie [1 ,2 ]
Gyulkhandanyan, Anna [1 ,2 ]
Hajduch, Eric [1 ,2 ]
Le Stunff, Herve [3 ]
机构
[1] Sorbonne Univ, INSERM, Ctr Rech Cordeliers, F-75006 Paris, France
[2] Inst Hosp Univ ICAN, F-75013 Paris, France
[3] Univ Paris Saclay, Inst Neurosci Paris Saclay, CNRS UMR 9197, F-91400 Saclay, France
关键词
ceramides; sphingosine-1-phosphate; lipoproteins; extracellular vesicles; biomarkers; INFLAMMATORY EXTRACELLULAR VESICLES; TRIGLYCERIDE TRANSFER PROTEIN; INDUCED INSULIN-RESISTANCE; NECROSIS-FACTOR-ALPHA; CERAMIDE SYNTHASE 2; PROMOTE INFLAMMATION; SIGNALING PATHWAY; PLASMA CERAMIDES; SERUM CERAMIDES; MUSCLE-CELLS;
D O I
10.3390/ijms241612720
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
Sphingolipids are a family of lipid molecules produced through different pathways in mammals. Sphingolipids are structural components of membranes, but in response to obesity, they are implicated in the regulation of various cellular processes, including inflammation, apoptosis, cell proliferation, autophagy, and insulin resistance which favors dysregulation of glucose metabolism. Of all sphingolipids, two species, ceramides and sphingosine-1-phosphate (S1P), are also found abundantly secreted into the bloodstream and associated with lipoproteins or extracellular vesicles. Plasma concentrations of these sphingolipids can be altered upon metabolic disorders and could serve as predictive biomarkers of these diseases. Recent important advances suggest that circulating sphingolipids not only serve as biomarkers but could also serve as mediators in the dysregulation of glucose homeostasis. In this review, advances of molecular mechanisms involved in the regulation of ceramides and S1P association to lipoproteins or extracellular vesicles and how they could alter glucose metabolism are discussed.
引用
收藏
页数:16
相关论文
共 50 条
  • [41] GLUCOSE HOMEOSTASIS IN NEWBORN
    SCHWARTZ, R
    ADAM, PAJ
    CHEN, CH
    MCCANN, ML
    BIOLOGIA NEONATORUM, 1966, 9 (1-6): : 287 - &
  • [42] Smoking and Glucose Homeostasis
    Skrha, J.
    DIABETES STOFFWECHSEL UND HERZ, 2020, 29 (05): : 310 - 312
  • [43] Kisspeptin and Glucose Homeostasis
    Izzi-Engbeaya, Chioma
    Hill, Thomas G.
    Bowe, James E.
    SEMINARS IN REPRODUCTIVE MEDICINE, 2019, 37 (03) : 140 - 146
  • [44] Physiology of glucose homeostasis
    Gerich, JE
    DIABETES OBESITY & METABOLISM, 2000, 2 (06): : 345 - 350
  • [45] Glucose homeostasis in the micropremie
    Farrag, HM
    Cowett, RM
    CLINICS IN PERINATOLOGY, 2000, 27 (01) : 1 - +
  • [46] Evidence for a role of circulating free insulin-like growth factor I in glucose homeostasis.
    Nyomba, BL
    Berard, L
    Murphy, LJ
    DIABETES, 1997, 46 : 954 - 954
  • [47] The contribution of glucose to neonatal glucose homeostasis in the lamb
    Cowett, RM
    Rapoza, RE
    Gelardi, NL
    METABOLISM-CLINICAL AND EXPERIMENTAL, 1998, 47 (10): : 1239 - 1244
  • [48] Human Glucose Transporters in Renal Glucose Homeostasis
    Sedzikowska, Aleksandra
    Szablewski, Leszek
    INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES, 2021, 22 (24)
  • [49] Brain glucose sensing mechanism and glucose homeostasis
    Pénicaud, L
    Leloup, C
    Lorsignol, A
    Alquier, T
    Guillod, E
    CURRENT OPINION IN CLINICAL NUTRITION AND METABOLIC CARE, 2002, 5 (05): : 539 - 543
  • [50] Role of circulating sphingolipids in lipid metabolism: Why dietary lipids matter
    Calzada, Catherine
    Vors, Cecile
    Penhoat, Armelle
    Cheillan, David
    Michalski, Marie-Caroline
    FRONTIERS IN NUTRITION, 2023, 9