mRNA-Seq reveals complex patterns of gene regulation and expression in the mouse skeletal muscle transcriptome associated with calorie restriction

Sarcopenia is an age-associated loss of skeletal muscle mass and strength that increases the risk of disability. Calorie restriction (CR), the consumption of fewer calories while maintaining adequate nutrition, mitigates sarcopenia and many other age-related diseases. To identify potential mechanism...

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Veröffentlicht in:Physiological genomics 2012-03, Vol.44 (6), p.331-344
Hauptverfasser: Dhahbi, Joseph M, Atamna, Hani, Boffelli, Dario, Martin, David I K, Spindler, Stephen R
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container_end_page 344
container_issue 6
container_start_page 331
container_title Physiological genomics
container_volume 44
creator Dhahbi, Joseph M
Atamna, Hani
Boffelli, Dario
Martin, David I K
Spindler, Stephen R
description Sarcopenia is an age-associated loss of skeletal muscle mass and strength that increases the risk of disability. Calorie restriction (CR), the consumption of fewer calories while maintaining adequate nutrition, mitigates sarcopenia and many other age-related diseases. To identify potential mechanisms by which CR preserves skeletal muscle integrity during aging, we used mRNA-Seq for deep characterization of gene regulation and mRNA abundance in skeletal muscle of old mice compared with old mice subjected to CR. mRNA-Seq revealed complex CR-associated changes in expression of mRNA isoforms, many of which occur without a change in total message abundance and thus would not be detected by methods other than mRNA-Seq. Functional annotation of differentially expressed genes reveals CR-associated upregulation of pathways involved in energy metabolism and lipid biosynthesis, and downregulation of pathways mediating protein breakdown and oxidative stress, consistent with earlier microarray-based studies. CR-associated changes not noted in previous studies involved downregulation of genes controlling actin cytoskeletal structures and muscle development. These CR-associated changes reflect generally healthier muscle, consistent with CR's mitigation of sarcopenia. mRNA-Seq generates a rich picture of the changes in gene expression associated with CR, and may facilitate identification of genes that are primary mediators of CR's effects.
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Calorie restriction (CR), the consumption of fewer calories while maintaining adequate nutrition, mitigates sarcopenia and many other age-related diseases. To identify potential mechanisms by which CR preserves skeletal muscle integrity during aging, we used mRNA-Seq for deep characterization of gene regulation and mRNA abundance in skeletal muscle of old mice compared with old mice subjected to CR. mRNA-Seq revealed complex CR-associated changes in expression of mRNA isoforms, many of which occur without a change in total message abundance and thus would not be detected by methods other than mRNA-Seq. Functional annotation of differentially expressed genes reveals CR-associated upregulation of pathways involved in energy metabolism and lipid biosynthesis, and downregulation of pathways mediating protein breakdown and oxidative stress, consistent with earlier microarray-based studies. CR-associated changes not noted in previous studies involved downregulation of genes controlling actin cytoskeletal structures and muscle development. 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Calorie restriction (CR), the consumption of fewer calories while maintaining adequate nutrition, mitigates sarcopenia and many other age-related diseases. To identify potential mechanisms by which CR preserves skeletal muscle integrity during aging, we used mRNA-Seq for deep characterization of gene regulation and mRNA abundance in skeletal muscle of old mice compared with old mice subjected to CR. mRNA-Seq revealed complex CR-associated changes in expression of mRNA isoforms, many of which occur without a change in total message abundance and thus would not be detected by methods other than mRNA-Seq. Functional annotation of differentially expressed genes reveals CR-associated upregulation of pathways involved in energy metabolism and lipid biosynthesis, and downregulation of pathways mediating protein breakdown and oxidative stress, consistent with earlier microarray-based studies. 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subjects Abundance
Actin
Age
Aging
Aging - physiology
Animals
Base Sequence
Biosynthetic Pathways - genetics
Biosynthetic Pathways - physiology
Blotting, Western
Call for Papers: NextGen Sequencing Technology-based Dissection of Physiological Systems
Caloric Restriction
Calories
Cytoskeleton
DNA microarrays
Energy metabolism
Energy Metabolism - genetics
Energy Metabolism - physiology
Gene expression
Gene Expression Regulation - physiology
Gene Library
Gene regulation
Lipid metabolism
Male
Mice
Molecular Sequence Data
Muscle, Skeletal - metabolism
Muscle, Skeletal - physiology
Nutrient deficiency
Nutrition
Oxidative stress
Oxidative Stress - physiology
Real-Time Polymerase Chain Reaction
Reverse Transcriptase Polymerase Chain Reaction
RNA, Messenger - metabolism
sarcopenia
Sarcopenia - prevention & control
Sequence Alignment
Sequence Analysis, DNA
Skeletal muscle
Transcriptome - physiology
title mRNA-Seq reveals complex patterns of gene regulation and expression in the mouse skeletal muscle transcriptome associated with calorie restriction
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