Elsevier

Developmental Biology

Volume 447, Issue 1, 1 March 2019, Pages 90-102
Developmental Biology

How glucose, glutamine and fatty acid metabolism shape blood and lymph vessel development

https://doi.org/10.1016/j.ydbio.2017.12.001Get rights and content
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Highlights

  • Endothelial cell metabolism recently emerged as a regulator of (lymph)angiogenesis.

  • CPT1a-driven FAO controls lymphangiogenesis in part through epigenetic changes.

  • Glycolysis–derived ATP is necessary for EC migration and proliferation.

  • FAO provides biomass for proliferating endothelial cells.

  • Glutamine is crucial for Krebs cycle anaplerosis, proliferation&redox homeostasis.

Abstract

Recently, endothelial cell metabolism has emerged as an essential driver and regulator of both blood and lymph vessel development. Evidence rapidly builds that metabolism is not only necessary for endothelial cell function, but moreover controls several aspects of the (lymph)-angiogenic process. So far, the best-characterized metabolic pathways to have an impact on angiogenesis are glycolysis, fatty acid oxidation and glutamine metabolism. Glycolysis regulates tip cell behavior by providing ATP, fatty acid oxidation controls stalk cell proliferation by producing nucleotide biomass, and glutamine metabolism is critical for tip and stalk cell dynamics by supporting Krebs cycle anaplerosis, protein production and redox homeostasis, and links to asparagine metabolism. During lymphangiogenesis, glycolysis and fatty acid oxidation are key metabolic pathways. Glycolysis provides energy for growing lymph vessels, while fatty acid oxidation is a critical metabolic regulator of lymphangiogenesis, in part by promoting nucleotide synthesis as well as by mediating epigenetic changes of histone acetylation, which promotes transcription of key lymphatic genes, and hence venous-to-lymphatic endothelial cell differentiation. On the whole, increasing knowledge on the metabolic landscape of endothelial cells offers a fresh impetus to future treatment possibilities of vascular related diseases.

Keywords

Endothelial cell metabolism
Blood vessel development
Lymph vessel development
Angiogenesis
Lymphangiogenesis
Glycolysis
Fatty acid oxidation
Glutamine metabolism

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