Cargando…

Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring

INTRODUCTION: Protein restriction during lactation can induce metabolic dysfunctions and has a huge impact on the offspring’s phenotype later in its life. We tested whether the effects of a maternal low-protein diet (LP) in rats can be transmitted to the F2 generation and increase their vulnerabilit...

Descripción completa

Detalles Bibliográficos
Autores principales: Vargas, Rodrigo, Martins, Isabela Peixoto, Matiusso, Camila Cristina Ianoni, Casagrande, Raiana Aparecida, Zara, Camila Benan, Huppes de Souza, Anna Carolina, Horst, William Pereira, Sieklicki, Taina Cristine, Becker, Tania Cristina Alexandrino, Lucredi, Naiara Cristina, Comar, Jurandir Fernando, Malta, Ananda, Mathias, Paulo Cezar de Freitas
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9872122/
https://www.ncbi.nlm.nih.gov/pubmed/36704794
http://dx.doi.org/10.3389/fnut.2022.1062116
_version_ 1784877335344840704
author Vargas, Rodrigo
Martins, Isabela Peixoto
Matiusso, Camila Cristina Ianoni
Casagrande, Raiana Aparecida
Zara, Camila Benan
Huppes de Souza, Anna Carolina
Horst, William Pereira
Sieklicki, Taina Cristine
Becker, Tania Cristina Alexandrino
Lucredi, Naiara Cristina
Comar, Jurandir Fernando
Malta, Ananda
Mathias, Paulo Cezar de Freitas
author_facet Vargas, Rodrigo
Martins, Isabela Peixoto
Matiusso, Camila Cristina Ianoni
Casagrande, Raiana Aparecida
Zara, Camila Benan
Huppes de Souza, Anna Carolina
Horst, William Pereira
Sieklicki, Taina Cristine
Becker, Tania Cristina Alexandrino
Lucredi, Naiara Cristina
Comar, Jurandir Fernando
Malta, Ananda
Mathias, Paulo Cezar de Freitas
author_sort Vargas, Rodrigo
collection PubMed
description INTRODUCTION: Protein restriction during lactation can induce metabolic dysfunctions and has a huge impact on the offspring’s phenotype later in its life. We tested whether the effects of a maternal low-protein diet (LP) in rats can be transmitted to the F2 generation and increase their vulnerability to dietary insults in adulthood. METHODS: Female Wistar rats (F0) were fed either a low-protein diet (LP; 4% protein) during the first 2 weeks of lactation or a normal-protein diet (NP; 23% protein). The female offspring (F1 generation) were maintained on a standard diet throughout the experiment. Once adulthood was reached, female F1 offspring from both groups (i.e., NP-F1 and LP-F1) were bred to proven males, outside the experiment, to produce the F2 generation. Male F2 offspring from both groups (NP-F2 and LP-F2 groups) received a standard diet until 60 days old, at which point they received either a normal fat (NF; 4.5% fat) or a high fat diet (HF; 35% fat) for 30 days. RESULTS: At 90 days old, LPNF-F2 offspring had increased lipogenesis and fasting insulinemia compared to NPNF-F2, without alteration in insulin sensitivity. HF diet caused increased gluconeogenesis and displayed glucose intolerance in LPHF-F2 offspring compared to LPNF-F2 offspring. Additionally, the HF diet led to damage to lipid metabolism (such as steatosis grade 3), higher body weight, fat pad stores, and hepatic lipid content. DISCUSSION: We concluded that an F0 maternal protein restricted diet during lactation can induce a transgenerational effect on glucose and liver metabolism in the F2 generation, making the offspring’s liver more vulnerable to nutritional injury later in life.
format Online
Article
Text
id pubmed-9872122
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher Frontiers Media S.A.
record_format MEDLINE/PubMed
spelling pubmed-98721222023-01-25 Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring Vargas, Rodrigo Martins, Isabela Peixoto Matiusso, Camila Cristina Ianoni Casagrande, Raiana Aparecida Zara, Camila Benan Huppes de Souza, Anna Carolina Horst, William Pereira Sieklicki, Taina Cristine Becker, Tania Cristina Alexandrino Lucredi, Naiara Cristina Comar, Jurandir Fernando Malta, Ananda Mathias, Paulo Cezar de Freitas Front Nutr Nutrition INTRODUCTION: Protein restriction during lactation can induce metabolic dysfunctions and has a huge impact on the offspring’s phenotype later in its life. We tested whether the effects of a maternal low-protein diet (LP) in rats can be transmitted to the F2 generation and increase their vulnerability to dietary insults in adulthood. METHODS: Female Wistar rats (F0) were fed either a low-protein diet (LP; 4% protein) during the first 2 weeks of lactation or a normal-protein diet (NP; 23% protein). The female offspring (F1 generation) were maintained on a standard diet throughout the experiment. Once adulthood was reached, female F1 offspring from both groups (i.e., NP-F1 and LP-F1) were bred to proven males, outside the experiment, to produce the F2 generation. Male F2 offspring from both groups (NP-F2 and LP-F2 groups) received a standard diet until 60 days old, at which point they received either a normal fat (NF; 4.5% fat) or a high fat diet (HF; 35% fat) for 30 days. RESULTS: At 90 days old, LPNF-F2 offspring had increased lipogenesis and fasting insulinemia compared to NPNF-F2, without alteration in insulin sensitivity. HF diet caused increased gluconeogenesis and displayed glucose intolerance in LPHF-F2 offspring compared to LPNF-F2 offspring. Additionally, the HF diet led to damage to lipid metabolism (such as steatosis grade 3), higher body weight, fat pad stores, and hepatic lipid content. DISCUSSION: We concluded that an F0 maternal protein restricted diet during lactation can induce a transgenerational effect on glucose and liver metabolism in the F2 generation, making the offspring’s liver more vulnerable to nutritional injury later in life. Frontiers Media S.A. 2023-01-10 /pmc/articles/PMC9872122/ /pubmed/36704794 http://dx.doi.org/10.3389/fnut.2022.1062116 Text en Copyright © 2023 Vargas, Martins, Matiusso, Casagrande, Zara, Huppes de Souza, Horst, Sieklicki, Becker, Lucredi, Comar, Malta and Mathias. https://creativecommons.org/licenses/by/4.0/This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Nutrition
Vargas, Rodrigo
Martins, Isabela Peixoto
Matiusso, Camila Cristina Ianoni
Casagrande, Raiana Aparecida
Zara, Camila Benan
Huppes de Souza, Anna Carolina
Horst, William Pereira
Sieklicki, Taina Cristine
Becker, Tania Cristina Alexandrino
Lucredi, Naiara Cristina
Comar, Jurandir Fernando
Malta, Ananda
Mathias, Paulo Cezar de Freitas
Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
title Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
title_full Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
title_fullStr Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
title_full_unstemmed Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
title_short Protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
title_sort protein restriction during lactation causes transgenerational metabolic dysfunction in adult rat offspring
topic Nutrition
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9872122/
https://www.ncbi.nlm.nih.gov/pubmed/36704794
http://dx.doi.org/10.3389/fnut.2022.1062116
work_keys_str_mv AT vargasrodrigo proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT martinsisabelapeixoto proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT matiussocamilacristinaianoni proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT casagranderaianaaparecida proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT zaracamilabenan proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT huppesdesouzaannacarolina proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT horstwilliampereira proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT sieklickitainacristine proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT beckertaniacristinaalexandrino proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT lucredinaiaracristina proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT comarjurandirfernando proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT maltaananda proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring
AT mathiaspaulocezardefreitas proteinrestrictionduringlactationcausestransgenerationalmetabolicdysfunctioninadultratoffspring