Magnesium deficiency during pregnancy in mice impairs placental size and function

J. Y. Rosner, M. Gupta, M. McGill, X. Xue, P. K. Chatterjee, M. Yoshida-Hay, W. Robeson, C. N. Metz

Research output: Contribution to journalArticle

3 Citations (Scopus)

Abstract

Objective Maternal magnesium (Mg) deficiency has been associated with fetal growth restriction. Using a mouse model of maternal Mg deficiency-induced fetal growth restriction, we sought to investigate the effect of Mg deficiency on placental physiology and function. Methods In vivo: Pregnant Swiss Webster mice were fed either 100% of the recommended amount of Mg (control) or 10%Mg (Mg-deficient) (8 per group). Dams were euthanized on gestational day 17 and placentas were collected, weighed and assessed for Mg concentrations, as well as nutrient transporter mRNA expression. For nutrient transfer studies, control and Mg-deficient dams (6 per group) were injected with 14C-amino acids and 3H-glucose and trans-placental passage was determined. In vitro: BeWo placental cells were grown in media containing 10%Mg to 100%Mg and the effects of Mg status on cell proliferation, oxidative stress and nutrient uptake were measured. Data were analyzed by Student's t-tests comparing controls vs. Mg-deficient animals or cells. For multiple comparisons, data were analyzed by ANOVA followed by Dunnett's post hoc testing. Results In vivo: Maternal Mg deficiency decreased placental Mg content, placental and fetal weights, ratio of fetal:placental weight (P <0.05), placental Slc7a5 transporter mRNA expression and transplacental nutrient transport (P <0.05). In vitro: Mg deficiency reduced BeWo nutrient uptake (P <0.01) and cell proliferation (P <0.01), and increased oxidative stress (P <0.01). Conclusion These findings highlight the adverse effects of maternal Mg deficiency on fetal weight and placental function, including transport and proliferation and may explain the fetal growth restriction observed with moderate Mg deficiency in mice.

Original languageEnglish (US)
Pages (from-to)87-93
Number of pages7
JournalPlacenta
Volume39
DOIs
StatePublished - Mar 1 2016
Externally publishedYes

Fingerprint

Magnesium Deficiency
Magnesium
Pregnancy
Fetal Weight
Fetal Development
Mothers
Food
Oxidative Stress
Cell Proliferation
Messenger RNA
Placenta
Analysis of Variance
Students

Keywords

  • Fetal growth restriction
  • oxidative stress
  • Placenta
  • placental transport

ASJC Scopus subject areas

  • Obstetrics and Gynecology
  • Reproductive Medicine
  • Developmental Biology

Cite this

Rosner, J. Y., Gupta, M., McGill, M., Xue, X., Chatterjee, P. K., Yoshida-Hay, M., ... Metz, C. N. (2016). Magnesium deficiency during pregnancy in mice impairs placental size and function. Placenta, 39, 87-93. https://doi.org/10.1016/j.placenta.2016.01.009

Magnesium deficiency during pregnancy in mice impairs placental size and function. / Rosner, J. Y.; Gupta, M.; McGill, M.; Xue, X.; Chatterjee, P. K.; Yoshida-Hay, M.; Robeson, W.; Metz, C. N.

In: Placenta, Vol. 39, 01.03.2016, p. 87-93.

Research output: Contribution to journalArticle

Rosner, JY, Gupta, M, McGill, M, Xue, X, Chatterjee, PK, Yoshida-Hay, M, Robeson, W & Metz, CN 2016, 'Magnesium deficiency during pregnancy in mice impairs placental size and function', Placenta, vol. 39, pp. 87-93. https://doi.org/10.1016/j.placenta.2016.01.009
Rosner JY, Gupta M, McGill M, Xue X, Chatterjee PK, Yoshida-Hay M et al. Magnesium deficiency during pregnancy in mice impairs placental size and function. Placenta. 2016 Mar 1;39:87-93. https://doi.org/10.1016/j.placenta.2016.01.009
Rosner, J. Y. ; Gupta, M. ; McGill, M. ; Xue, X. ; Chatterjee, P. K. ; Yoshida-Hay, M. ; Robeson, W. ; Metz, C. N. / Magnesium deficiency during pregnancy in mice impairs placental size and function. In: Placenta. 2016 ; Vol. 39. pp. 87-93.
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abstract = "Objective Maternal magnesium (Mg) deficiency has been associated with fetal growth restriction. Using a mouse model of maternal Mg deficiency-induced fetal growth restriction, we sought to investigate the effect of Mg deficiency on placental physiology and function. Methods In vivo: Pregnant Swiss Webster mice were fed either 100{\%} of the recommended amount of Mg (control) or 10{\%}Mg (Mg-deficient) (8 per group). Dams were euthanized on gestational day 17 and placentas were collected, weighed and assessed for Mg concentrations, as well as nutrient transporter mRNA expression. For nutrient transfer studies, control and Mg-deficient dams (6 per group) were injected with 14C-amino acids and 3H-glucose and trans-placental passage was determined. In vitro: BeWo placental cells were grown in media containing 10{\%}Mg to 100{\%}Mg and the effects of Mg status on cell proliferation, oxidative stress and nutrient uptake were measured. Data were analyzed by Student's t-tests comparing controls vs. Mg-deficient animals or cells. For multiple comparisons, data were analyzed by ANOVA followed by Dunnett's post hoc testing. Results In vivo: Maternal Mg deficiency decreased placental Mg content, placental and fetal weights, ratio of fetal:placental weight (P <0.05), placental Slc7a5 transporter mRNA expression and transplacental nutrient transport (P <0.05). In vitro: Mg deficiency reduced BeWo nutrient uptake (P <0.01) and cell proliferation (P <0.01), and increased oxidative stress (P <0.01). Conclusion These findings highlight the adverse effects of maternal Mg deficiency on fetal weight and placental function, including transport and proliferation and may explain the fetal growth restriction observed with moderate Mg deficiency in mice.",
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AU - McGill, M.

AU - Xue, X.

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AU - Yoshida-Hay, M.

AU - Robeson, W.

AU - Metz, C. N.

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N2 - Objective Maternal magnesium (Mg) deficiency has been associated with fetal growth restriction. Using a mouse model of maternal Mg deficiency-induced fetal growth restriction, we sought to investigate the effect of Mg deficiency on placental physiology and function. Methods In vivo: Pregnant Swiss Webster mice were fed either 100% of the recommended amount of Mg (control) or 10%Mg (Mg-deficient) (8 per group). Dams were euthanized on gestational day 17 and placentas were collected, weighed and assessed for Mg concentrations, as well as nutrient transporter mRNA expression. For nutrient transfer studies, control and Mg-deficient dams (6 per group) were injected with 14C-amino acids and 3H-glucose and trans-placental passage was determined. In vitro: BeWo placental cells were grown in media containing 10%Mg to 100%Mg and the effects of Mg status on cell proliferation, oxidative stress and nutrient uptake were measured. Data were analyzed by Student's t-tests comparing controls vs. Mg-deficient animals or cells. For multiple comparisons, data were analyzed by ANOVA followed by Dunnett's post hoc testing. Results In vivo: Maternal Mg deficiency decreased placental Mg content, placental and fetal weights, ratio of fetal:placental weight (P <0.05), placental Slc7a5 transporter mRNA expression and transplacental nutrient transport (P <0.05). In vitro: Mg deficiency reduced BeWo nutrient uptake (P <0.01) and cell proliferation (P <0.01), and increased oxidative stress (P <0.01). Conclusion These findings highlight the adverse effects of maternal Mg deficiency on fetal weight and placental function, including transport and proliferation and may explain the fetal growth restriction observed with moderate Mg deficiency in mice.

AB - Objective Maternal magnesium (Mg) deficiency has been associated with fetal growth restriction. Using a mouse model of maternal Mg deficiency-induced fetal growth restriction, we sought to investigate the effect of Mg deficiency on placental physiology and function. Methods In vivo: Pregnant Swiss Webster mice were fed either 100% of the recommended amount of Mg (control) or 10%Mg (Mg-deficient) (8 per group). Dams were euthanized on gestational day 17 and placentas were collected, weighed and assessed for Mg concentrations, as well as nutrient transporter mRNA expression. For nutrient transfer studies, control and Mg-deficient dams (6 per group) were injected with 14C-amino acids and 3H-glucose and trans-placental passage was determined. In vitro: BeWo placental cells were grown in media containing 10%Mg to 100%Mg and the effects of Mg status on cell proliferation, oxidative stress and nutrient uptake were measured. Data were analyzed by Student's t-tests comparing controls vs. Mg-deficient animals or cells. For multiple comparisons, data were analyzed by ANOVA followed by Dunnett's post hoc testing. Results In vivo: Maternal Mg deficiency decreased placental Mg content, placental and fetal weights, ratio of fetal:placental weight (P <0.05), placental Slc7a5 transporter mRNA expression and transplacental nutrient transport (P <0.05). In vitro: Mg deficiency reduced BeWo nutrient uptake (P <0.01) and cell proliferation (P <0.01), and increased oxidative stress (P <0.01). Conclusion These findings highlight the adverse effects of maternal Mg deficiency on fetal weight and placental function, including transport and proliferation and may explain the fetal growth restriction observed with moderate Mg deficiency in mice.

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KW - placental transport

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