Aging CellGenomicsPeer-reviewed journal article
Caloric restriction reprograms adipose tissues in rhesus monkeys
Josef P. ClarkiD, Timothy W. RhoadsiD, Sean J. McIlwainiD, Michael A. PolewskiiD, Derek M. PaveleciD, Ricki J. ColmaniD, Rozalyn M. AndersoniD
Abstract
Caloric restriction (CR) is a dietary intervention that delays the onset of age-related diseases and enhances survival in diverse organisms, and although changes in adipose tissues have been implicated in the beneficial effects of CR the molecular details are unknown. Here we show shared and depot-specific adaptations to life-long CR in subcutaneous and visceral adipose depots taken from advanced age male rhesus monkeys. Differential gene expression and pathway analysis identified key differences between the depots in metabolic, immune, and inflammatory pathways. In response to CR, RNA processing and proteostasis-related pathways were enriched in both depots but changes in metabolic, growth, and inflammatory pathways were depot-specific. Commonalities and differences that distinguish adipose depots are shared among monkeys and humans and the response to CR is highly conserved. These data reveal depot-specificity in adipose tissue adaptation that likely reflects differences in function and contribution to age-related disease vulnerability. In BriefRhesus monkey adipose tissues are highly responsive to long-term caloric restriction, although the response is depot-specific. Shared features include proteostasis and RNA processing pathways, whereas metabolic pathways, alterations in processes influenced by growth signaling, and changes in exon usage were depot-specific. The impact of CR on subcutaneous adipose tissue is highly conserved between monkeys and humans. HighlightsO_LIAt the transcript level, SAT and VAT taken from the same animals show modest specialization, primarily in metabolic and immune pathways. C_LIO_LIThe transcriptome of SAT is more responsive to CR than that of VAT, with depot-specific differences in metabolic adaptation and cell type composition. C_LIO_LIRNA processing pathways are engaged by CR and transcript isoforms are enriched in both depots, but differential exon usage is limited to SAT. C_LIO_LIAdipose reprogramming is linked to CR induced differences in body composition and systemic indices of health. C_LIO_LIThe impact of CR on subcutaneous adipose tissue is highly similar between monkeys and humans. C_LI
- organism: rat
- assay: bulk RNA-seq
- research focus: differential expression
- research focus: gene regulatory network inference
- research focus: cell-cell communication
- research focus: spatial domain detection
- approach: statistical model
- Citations
- 3
- FWCI
- 1.93
- Field percentile
- top 14%
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