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Published on: July 30, 2016
Maternal Melatonin Deficiency Leads to Endocrine Pathologies in Children in Early Ontogenesis
Dmitry O Ivanov1, Inna I Evsyukova2, Ekaterina S Mironova3,4
1Department of Neonatology, Saint-Petersburg State Pediatric Medical University, Litovskaya Ulitsa, 2, St. Petersburg 194100, Russia.
Abstract:
The review summarizes the results of experimental and clinical studies aimed at elucidating the causes and pathophysiological mechanisms of the development of endocrine pathology in children. The modern data on the role of epigenetic influences in the early ontogenesis of unfavorable factors that violate the patterns of the formation of regulatory mechanisms during periods of critical development of fetal organs and systems and contribute to the delayed development of pathological conditions are considered. The mechanisms of the participation of melatonin in the regulation of metabolic processes and the key role of maternal melatonin in the formation of the circadian system of regulation in the fetus and in the protection of the genetic program of its morphofunctional development during pregnancy complications are presented. Melatonin, by controlling DNA methylation and histone modification, prevents changes in gene expression that are directly related to the programming of endocrine pathology in offspring. Deficiency and absence of the circadian rhythm of maternal melatonin underlies violations of the genetic program for the development of hormonal and metabolic regulatory mechanisms of the functional systems of the child, which determines the programming and implementation of endocrine pathology in early ontogenesis, contributing to its development in later life. The significance of this factor in the pathophysiological mechanisms of endocrine disorders determines a new approach to risk assessment and timely prevention of offspring diseases even at the stage of family planning.
Insights
Maternal melatonin is crucial for fetal development, preventing endocrine pathology through epigenetic regulation. Its deficiency can lead to long-term health issues in children, highlighting the importance of circadian rhythm for healthy development.
Area of Science:
- Endocrinology
- Developmental Biology
- Epigenetics
Background:
- Endocrine pathology in children is a growing concern.
- Early ontogenesis is a critical period for development, susceptible to environmental influences.
- Epigenetic factors play a significant role in disease programming.
Purpose of the Study:
- To review the causes and mechanisms of endocrine pathology in children.
- To elucidate the role of epigenetic influences and melatonin in early development.
- To understand the impact of maternal melatonin on fetal development and long-term health.
Main Methods:
- Review of experimental and clinical studies.
- Analysis of epigenetic mechanisms, including DNA methylation and histone modification.
- Investigation of melatonin's role in metabolic regulation and circadian system formation.
Main Results:
- Unfavorable factors during critical developmental periods can disrupt regulatory mechanisms.
- Maternal melatonin is key for fetal circadian system development and protecting the genetic program.
- Melatonin's epigenetic control (DNA methylation, histone modification) prevents endocrine pathology programming.
Conclusions:
- Deficiency or absence of maternal melatonin's circadian rhythm disrupts the genetic program for hormonal and metabolic regulation.
- This disruption leads to the programming and development of endocrine pathology in early ontogenesis and later life.
- Identifying melatonin's role offers a new approach to risk assessment and prevention of offspring diseases, even during family planning.
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