Maternal High-Fat Diet Promotes Body Length Increases and Insulin Insensitivity in Second-Generation Mice

Maternal obesity and diet consumption during pregnancy have been linked to offspring adiposity, cardiovascular disease, and impaired glucose metabolism. Furthermore, nutrition during development is clearly linked to somatic growth. However, few studies have examined whether phenotypes derived from m...

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Veröffentlicht in:Endocrinology (Philadelphia) 2009-11, Vol.150 (11), p.4999-5009
Hauptverfasser: Dunn, Gregory A, Bale, Tracy L
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Bale, Tracy L
description Maternal obesity and diet consumption during pregnancy have been linked to offspring adiposity, cardiovascular disease, and impaired glucose metabolism. Furthermore, nutrition during development is clearly linked to somatic growth. However, few studies have examined whether phenotypes derived from maternal high-fat diet exposure can be passed to subsequent generations and by what mechanisms this may occur. Here we report the novel finding of a significant body length increase that persisted across at least two generations of offspring in response to maternal high-fat diet exposure. This phenotype is not attributable to altered intrauterine conditions or maternal feeding behavior because maternal and paternal lineages were able to transmit the effect, supporting a true epigenetic manner of inheritance. We also detected a heritable feature of reduced insulin sensitivity across two generations. Alterations in the GH secretagogue receptor (GHSR), the GHSR transcriptional repressor AF5q31, plasma IGF-I concentrations, and IGF-binding protein-3 (IGFBP3) suggest a contribution of the GH axis. These studies provide evidence that the heritability of body length and glucose homeostasis are modulated by maternal diet across multiple generations, providing a mechanism where length can increase rapidly in concert with caloric availability. The heritability of body length and glucose homeostasis are modulated by maternal diet across multiple generations, providing a mechanism by which length can increase rapidly in concert with caloric availability.
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Furthermore, nutrition during development is clearly linked to somatic growth. However, few studies have examined whether phenotypes derived from maternal high-fat diet exposure can be passed to subsequent generations and by what mechanisms this may occur. Here we report the novel finding of a significant body length increase that persisted across at least two generations of offspring in response to maternal high-fat diet exposure. This phenotype is not attributable to altered intrauterine conditions or maternal feeding behavior because maternal and paternal lineages were able to transmit the effect, supporting a true epigenetic manner of inheritance. We also detected a heritable feature of reduced insulin sensitivity across two generations. Alterations in the GH secretagogue receptor (GHSR), the GHSR transcriptional repressor AF5q31, plasma IGF-I concentrations, and IGF-binding protein-3 (IGFBP3) suggest a contribution of the GH axis. These studies provide evidence that the heritability of body length and glucose homeostasis are modulated by maternal diet across multiple generations, providing a mechanism where length can increase rapidly in concert with caloric availability. 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subjects Adipose tissue
Adiposity
Animals
Blood Glucose
Body Height
Body length
Body Weight
Cardiovascular diseases
Diet
Dietary Fats - adverse effects
DNA Methylation
Epigenetics
Fat metabolism
Feeding behavior
Female
Glucose
Glucose metabolism
Growth hormones
Heritability
High fat diet
Homeostasis
Humans
Insulin
Insulin Resistance
Insulin-like growth factor I
Insulin-like growth factor-binding protein 3
Male
Maternal behavior
Maternal Nutritional Physiological Phenomena
Mice
Mice, Inbred C57BL
Models, Animal
Obesity - etiology
Obesity - genetics
Obesity - metabolism
Offspring
Paternal behavior
Pedigree
Phenotypes
Pregnancy
Prenatal Exposure Delayed Effects
Receptors, Ghrelin - genetics
Receptors, Ghrelin - metabolism
title Maternal High-Fat Diet Promotes Body Length Increases and Insulin Insensitivity in Second-Generation Mice
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