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Maternal and fetal vitamin D and their roles in mineral homeostasis and fetal bone development

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Abstract

During pregnancy, female physiology adapts to meet the additional mineral demands of the developing fetus. Meanwhile, the fetus actively transports minerals across the placenta and maintains high circulating levels to mineralize the rapidly developing skeleton. Most of this mineral is accreted during the last trimester, including 30 g of calcium, 20 g of phosphate and 0.8 g of magnesium. Given the dependence of calcium homeostasis on vitamin D and calcitriol in the adult and child, it may be expected that vitamin D sufficiency would be even more critical during pregnancy and fetal development. However, the pregnant mother and fetus appear to meet their mineral needs independent of vitamin D. Adaptations in maternal mineral and bone metabolism during pregnancy appear to be invoked independent of maternal vitamin D, while fetal mineral metabolism and skeletal development appear to be protected from vitamin D deficiency and genetic disorders of vitamin D physiology. This review discusses key data from both animal models and human studies to address our current knowledge on the role of vitamin D and calcitriol during pregnancy and fetal development.

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Supported by operating grants from the Canadian Institutes of Health Research (#165969, #133413 and #126469), and Discipline of Medicine, Memorial University [to CSK].

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Ryan, B.A., Kovacs, C.S. Maternal and fetal vitamin D and their roles in mineral homeostasis and fetal bone development. J Endocrinol Invest 44, 643–659 (2021). https://doi.org/10.1007/s40618-020-01387-2

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