Regulatory mechanisms in vascular calcification

医学 软骨内骨化 基质gla蛋白 钙化 病理 骨质疏松症 软骨 解剖 生物信息学 异位钙化 生物
作者
Andrew P. Sage,Yin Tintut,Linda L. Demer
出处
期刊:Nature Reviews Cardiology [Springer Nature]
卷期号:7 (9): 528-536 被引量:524
标识
DOI:10.1038/nrcardio.2010.115
摘要

Vascular calcification is associated with an increased risk of cardiovascular and all-cause mortality. In the past decade, the prevalence, significance, and regulatory mechanisms of vascular calcification have gained increasing recognition. In this Review, Drs. Sage, Tintut and Demer discuss our knowledge of the regulatory mechanisms for both atherosclerotic and medial calcification. In the past decade, the prevalence, significance, and regulatory mechanisms of vascular calcification have gained increasing recognition. Over a century ago, pathologists recognized atherosclerotic calcification as a form of extraskeletal ossification. Studies are now identifying the mechanism of this remarkable process as a recapitulation of embryonic endochondral and membranous ossification through phenotypic plasticity of vascular cells that function as adult mesenchymal stem cells. These embryonic developmental programs, involving bone morphogenetic proteins and potent osteochondrogenic transcription factors, are triggered and modulated by a variety of inflammatory, metabolic, and genetic disorders, particularly hyperlipidemia, chronic kidney disease, diabetes, hyperparathyroidism, and osteoporosis. They are also triggered by loss of powerful inhibitors, such as fetuin A, matrix Gla protein, and pyrophosphate, which ordinarily restrict biomineralization to skeletal bone. Teleologically, soft-tissue calcification might serve to create a wall of bone to sequester noxious foci such as chronic infections, parasites, and foreign bodies. This Review focuses on atherosclerotic and medial calcification. The capacity of the vasculature to produce mineral in culture and to produce de novo, vascularized, trabecular bone and cartilage tissue, even in patients with osteoporosis, should intrigue investigators in tissue engineering and regenerative biology.

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