2017The Journal of PhysiologyRequires access

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Abstract

Primary cellular proteostatic mechanisms within mice. Multiple components of the proteostatic network are known to be deleteriously affected by ageing but such age-associated changes may be slowed and/or delayed in long-lived mice. Consequently, it has been suggested that the ability to better maintain proteostasis over the life-course underlies both the greater lifespan and healthspan of long-lived mutant mice. UPRER, endoplasmic reticulum stress unfolded protein response; UPRmt, mitochondrial unfolded protein response; ERAD, endoplasmic reticulum associated protein degradation.

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Primary cellular proteostatic mechanisms within mice. Multiple components of the proteostatic network are known to be deleteriously affected by ageing but such age-associated changes may be slowed and/or delayed in long-lived mice. Consequently, it has been suggested that the ability to better maintain proteostasis over the life-course underlies both the greater lifespan and healthspan of long-lived mutant mice. UPRER, endoplasmic reticulum stress unfolded protein response; UPRmt, mitochondrial unfolded protein response; ERAD, endoplasmic reticulum associated protein degradation.

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Available abstract

Primary cellular proteostatic mechanisms within mice. Multiple components of the proteostatic network are known to be deleteriously affected by ageing but such age-associated changes may be slowed and/or delayed in long-lived mice. Consequently, it has been suggested that the ability to better maintain proteostasis over the life-course underlies both the greater lifespan and healthspan of long-lived mutant mice. UPRER, endoplasmic reticulum stress unfolded protein response; UPRmt, mitochondrial unfolded protein response; ERAD, endoplasmic reticulum associated protein degradation.

Key concepts: Proteostasis, Endoplasmic reticulum, Endoplasmic-reticulum-associated protein degradation, Unfolded protein response, Cell biology, Mutant, Protein folding, Biology

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