Unravelling the impact of intrauterine growth restriction on heart development: Insights into mitochondria and sexual dimorphism from a non-hominoid primate
| dc.contributor.author | Booz, George Warren | |
| dc.contributor.author | Massoud2, Gaelle P. | |
| dc.contributor.author | Altara3, Raffaele | |
| dc.contributor.author | Zouein, Fouad A. | |
| dc.contributor.department | Pharmacology and Toxicology | |
| dc.contributor.faculty | Faculty of Medicine (FM) | |
| dc.contributor.institution | American University of Beirut | |
| dc.date.accessioned | 2025-01-24T11:39:47Z | |
| dc.date.available | 2025-01-24T11:39:47Z | |
| dc.date.issued | 2021 | |
| dc.description.abstract | Fetal exposure to an unfavorable intrauterine environment programs an individual to have a greater susceptibility later in life to non-communicable diseases, such as coronary heart disease, but the molecular processes are poorly understood. An article in Clinical Science recently reported novel details on the effects of maternal nutrient reduction (MNR) on fetal heart development using a primate model that is about 94% genetically similar to humans and is also mostly monotocous. MNR adversely impacted fetal left ventricular (LV) mitochondria in a sex-dependent fashion with a greater effect on male fetuses, although mitochondrial transcripts increased more so in females. Increased expression for several respiratory chain and adenosine triphosphate (ATP) synthase proteins were observed. However, fetal LV mitochondrial complex I and complex II/III activities were significantly decreased, likely contributing to a 73% decreased LV ATP content and increased LV lipid peroxidation. Moreover, MNR fetal LV mitochondria showed sparse and disarranged cristae. This study indicates that mitochondria are targets of the remodeling and imprinting processes in a sex-dependent manner. Mitochondrial ROS production and inadequate energy production add another layer of complexity. Altogether these observations raise the possibility that dysfunctional mitochondria in the fetus may contribute in turn to epigenetic memory of in utero stress in the adult. The role of mitoepigenetics and involvement of mitochondrial and genomic non-coding RNAs in mitochondrial functions and nuclei-mitochondria crosstalk with in utero stress awaits further investigation. ©2021 The Author(s). Published by Portland Press Limited on behalf of the Biochemical Society. | |
| dc.identifier.doi | https://doi.org/10.1042/CS20210524 | |
| dc.identifier.eid | 2-s2.0-85112185516 | |
| dc.identifier.pmid | 34313297 | |
| dc.identifier.uri | http://hdl.handle.net/10938/29352 | |
| dc.language.iso | en | |
| dc.publisher | Portland Press Ltd | |
| dc.relation.ispartof | Clinical Science | |
| dc.source | Scopus | |
| dc.subject | Animals | |
| dc.subject | Fetal development | |
| dc.subject | Fetal growth retardation | |
| dc.subject | Heart | |
| dc.subject | Humans | |
| dc.subject | Lipid peroxidation | |
| dc.subject | Mitochondria | |
| dc.subject | Primates | |
| dc.subject | Sex characteristics | |
| dc.subject | Adenosine triphosphate | |
| dc.subject | Cyclophilin d | |
| dc.subject | Cytochrome c | |
| dc.subject | Fumaric acid | |
| dc.subject | Fusion protein | |
| dc.subject | G protein coupled receptor 30 | |
| dc.subject | Genomic dna | |
| dc.subject | Glucocorticoid | |
| dc.subject | Glutathione | |
| dc.subject | Malonaldehyde | |
| dc.subject | Mitochondrial dna | |
| dc.subject | Mitochondrial permeability transition pore | |
| dc.subject | Mitochondrial protein | |
| dc.subject | Ndufb8 protein | |
| dc.subject | Proton transporting adenosine triphosphate synthase | |
| dc.subject | Reduced nicotinamide adenine dinucleotide dehydrogenase (ubiquinone) | |
| dc.subject | Succinate dehydrogenase (ubiquinone) | |
| dc.subject | Succinic acid | |
| dc.subject | Tricarboxylic acid | |
| dc.subject | Ubiquinol cytochrome c reductase | |
| dc.subject | Unclassified drug | |
| dc.subject | Untranslated rna | |
| dc.subject | Uqcrc1 protein | |
| dc.subject | Voltage dependent anion channel 1 | |
| dc.subject | Animal experiment | |
| dc.subject | Animal model | |
| dc.subject | Ape | |
| dc.subject | Apoptosis | |
| dc.subject | Cell death | |
| dc.subject | Controlled study | |
| dc.subject | Disorders of mitochondrial functions | |
| dc.subject | Endoplasmic reticulum | |
| dc.subject | Energy yield | |
| dc.subject | Epigenetics | |
| dc.subject | Female | |
| dc.subject | Fetus | |
| dc.subject | Fetus development | |
| dc.subject | Fetus heart | |
| dc.subject | Gene expression | |
| dc.subject | Gene expression profiling | |
| dc.subject | Heart development | |
| dc.subject | Intrauterine growth retardation | |
| dc.subject | Male | |
| dc.subject | Maternal nutrition | |
| dc.subject | Memory | |
| dc.subject | Mitochondrion | |
| dc.subject | Molecular imprinting | |
| dc.subject | Nonhuman | |
| dc.subject | Oxidative stress | |
| dc.subject | Physiological stress | |
| dc.subject | Primate model | |
| dc.subject | Respiratory chain | |
| dc.subject | Review | |
| dc.subject | Sex difference | |
| dc.subject | Animal | |
| dc.subject | Growth, development and aging | |
| dc.subject | Human | |
| dc.subject | Metabolism | |
| dc.subject | Physiology | |
| dc.subject | Primate | |
| dc.subject | Sexual characteristics | |
| dc.title | Unravelling the impact of intrauterine growth restriction on heart development: Insights into mitochondria and sexual dimorphism from a non-hominoid primate | |
| dc.type | Review |
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