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Gestational Diabetes Alters Functions in Offspring's Umbilical Cord Cells With Implications for Cardiovascular Health
Ajith Isaac Amrithraj1,2, Anjaneyulu Kodali1, Linh Nguyen3
1Singapore Institute for Clinical Sciences, Institute of Molecular and Cell Biology, Agency for Science Technology and Research (A*STAR), Singapore 117609.
Insights
Maternal gestational diabetes mellitus (GDM) imprints offspring
Area of Science:
- Perinatal programming of noncommunicable diseases
- Developmental origins of health and disease (DOHaD)
Background:
- Noncommunicable diseases often originate during prenatal development.
- Maternal gestational diabetes mellitus (GDM) is a key risk factor for offspring health.
- Understanding GDM's impact on fetal development is crucial for long-term health prediction.
Purpose of the Study:
- To investigate the impact of maternal GDM on primary cells from offspring.
- To compare cellular functions and gene expression in GDM-exposed versus control offspring cells.
- To identify molecular pathways affected by maternal hyperglycemia in utero.
Main Methods:
- Primary cell isolation from umbilical cords (HUVECs, mesenchymal stem cells).
- Cell-based assays: proliferation, mitochondrial respiration, angiogenesis.
- Gene expression microarray analysis and pathway analysis.
- Validation of candidate genes (e.g., CD44, BCL-xL).
Main Results:
- Offspring cells from GDM pregnancies showed reduced metabolic rates and impaired blood vessel formation.
- Lower expression of BCL-xL in GDM-derived HUVECs suggests compromised angiogenesis.
- Gene expression analysis highlighted blood vessel formation pathways.
- CD44 was underexpressed in GDM-derived HUVECs and regulates tube formation.
Conclusions:
- Maternal hyperglycemia during pregnancy leaves lasting molecular and metabolic imprints on offspring's umbilical cord cells.
- These imprints, particularly on endothelial cells, may increase future cardiovascular disease risk.
- CD44 pathway alterations offer insights into GDM's developmental impact.
Abstract:
Because noncommunicable diseases such as type 2 diabetes mellitus have their roots in prenatal development and conditions such as maternal gestational diabetes mellitus (GDM), we aimed to test this hypothesis in primary cells derived from the offspring of mothers with GDM compared with control subjects. We have assessed primary umbilical cord-derived cells such as human umbilical vein endothelial cells (HUVECs) and Wharton's jelly-derived mesenchymal stem cells from the offspring of mothers with and without GDM. We have compared the primary isolates in cell-based assays measuring proliferation, mitochondrial oxygen consumption, and the ability to support blood vessel growth. We conducted gene expression microarray studies with subsequent pathway analysis and candidate gene validation. We observed striking differences between the two groups, such as lower metabolic rates and impairment of endothelial tube formation in cells with GDM background. HUVECs from subjects with maternal GDM have lower expression of the antiapoptotic protein BCL-xL, suggesting compromised angiogenic capabilities. Comparative gene expression analysis revealed blood vessel formation as a major pathway enriched in the GDM-derived HUVECs with the surface marker CD44 as a gene underexpressed in the GDM group. Functional validation of CD44 revealed that it regulates tube formation in HUVECs, thereby providing insights into a pathway imprinted in primary umbilical cord-derived cells from GDM offspring. Our data demonstrate that primary cells isolated from the umbilical cord of offspring born to mothers with GDM maintain metabolic and molecular imprints of maternal hyperglycemia, reflecting an increased risk for cardiovascular disease later in life.
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