The Journals of Gerontology Series A · 2013 · 284 citations · 44 references
Life SciencesNutritional SciencesPhysiologyMetabolic PhysiologyMetabolic RegulationMetabolismAging PhysiologyMetabolic DisordersMetabolic SignalingRodent NutritionSleep PhysiologySleep-wake NeurobiologyAdverse Health EffectsMammalian Target Of Rapamycin SignalingMetabolic Rate RegulationMouse WelfareMtor InhibitionMtor SignalingPathological Skeletal LesionsStride Length
Target of rapamycin inhibition by rapamycin feeding has previously been shown to extend life in genetically heterogeneous mice. To examine whether it similarly affected mouse health, we fed encapsulated rapamycin or a control diet to C57BL/6Nia mice of both sexes starting at 19 months of age. We performed a range of health assessments 6 and 12 months later. Rapamycin feeding significantly reduced mTOR activity in most but not all tissues. It also reduced total and resting metabolic rate during the light (inactive) phase of the light:dark cycle in females only but had no effect on spontaneous activity or metabolism during the dark (active) phase of either sex. Males only had less fragmented sleep when fed rapamycin, whereas stride length and rotarod performance were improved in both sexes. Survival was also improved by this late-life rapamycin feeding, and some pathological lesions were delayed. We found no adverse health consequences associated with rapamycin treatment.
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Rapamycin fed late in life extends lifespan in genetically heterogeneous mice
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