AnAge entry for Macaca mulatta
Classification (HAGRID: 02741)
- Taxonomy
-
Kingdom: Animalia
Phylum: Chordata
Class: Mammalia (Taxon entry)
Order: Primates (Taxon entry)
Family: Cercopithecidae
Genus: Macaca
- Species
- Macaca mulatta
- Common name
- Rhesus monkey
- Synonyms
- Simia erythraea, Simia fulvus, Macacus lasiotus, Pithecus littoralis, Macaca nipalensis, Macaca oinops, Simia rhesus, Inuus sancti-johannis, Macaca siamica, Macacus tcheliensis, Macacus vestitus, Inuus sanctijohannis, Macacus rhesus villosus, Macaca mulatta mcmahoni
Lifespan, ageing, and relevant traits
- IMR
- 0.02/year
- MRDT
- 15 years
- Maximum longevity
- 40 years (captivity)
- Source
- ref. 1074
- Sample size
- Large
- Data quality
- High
- Observations
Despite a higher MRDT [0058], rhesus macaques appear to age significantly faster than humans do from a physiological perspective [0002]. The females of this species reach menopause at about the age of 25 [0434]. Four male monkeys under caloric restriction for part of their lives and one fed a normal diet have lived beyond 40 years [1074].
Old animals suffer from various age-related diseases common in humans, including heart disease and cancer; amyloidosis, diabetes and, in females, endometriosis have also been reported [0981]. Chinese rhesus macaques have demonstrated noticeable age-related changes in both T and B cell subsets, comparable to those found during human ageing. T cell ageing is slower in female Chinese rhesus macaques than in males, giving males a more severe immune risk profile [1183]. There have been conflicting reports on the effects of caloric restriction in rhesus macaques. One ongoing study first reported in 2009 that caloric restriction can lower the incidence of ageing-related deaths [0873], a second ongoing study reported in 2012 that caloric restriction did not improve survival even if beneficial health effects were observed [1074]. The former ongoing study reported again in 2014 that caloric restriction reduces age-related and all-cause mortality [1184]. A comprehensive assessment of longitudinal data from both sites concluded that caloric restriction does improve health and survival of rhesus monkeys [1257]. Aging has not been found to affect the number and size of alpha-motor neurons, in both this species and mice. However, these neurons were found to shed synaptic inputs with age, which may cause their disfunction in older animals [1314]. Additionally, these animals have been found to have naturally occurring deposits of Abeta. These deposits did not include the dimer form and, while they did induce gliosis, there were no other downstream pathologies related to Alzheimer's disease found in the specimen's brains [1316].
Similar to other monkey species, old females have been shown to spend less time in social interactions and with a smaller number of animals, while older males appear unaffected socially by age [1313].
Studies comparing ageing-associated differentially methylated positions (aDMPs) between mouse, dog, naked mole-rat, rhesus monkey, humpback whale and human, have shown that lifespan in these mammalian species is strongly correlated with the rate of change of methylation levels in aDMPs. Additionally, these methylation dynamics are a measure of cellular ageing [1315].
Life history traits (averages)
- Female sexual maturity
- 1,231 days
- Male sexual maturity
- 2,007 days
- Gestation
- 165 days
- Weaning
- Litter size
- 1 (viviparous)
- Litters per year
- 1
- Inter-litter interval
- 444 days
- Weight at birth
- 464 g
- Weight at weaning
- Adult weight
- 8,235 g
- Postnatal growth rate
- 0.0012 days-1 (from Gompertz function)
- Maximum longevity residual
- 206%
Metabolism
- Typical body temperature
- 310ºK or 37.3ºC or 99.1ºF
- Basal metabolic rate
- Not yet available
References
- [1316] Zhang et al. (2019), Brains of rhesus monkeys display AB deposits and glial pathology while lacking AB dimers and other Alzheimer's pathologies (PubMed)
- [1315] Lowe et al. (2018), Ageing-associated DNA methylation dynamics are a molecular readout of lifespan variation among mammalian species (PubMed)
- [1314] Maxwell et al. (2018), alpha-Motor neurons are spared from aging while their synaptic inputs degenerate in monkeys and mice (PubMed)
- [1313] Fischer (2017), On the Social Life and Motivational Changes of Aging Monkeys (PubMed)
- [1257] Mattison et al. (2017), Caloric restriction improves health and survival of rhesus monkeys (PubMed)
- [1236] Didier et al. (2016), Contributions of Nonhuman Primates to Research on Aging (PubMed)
- [1214] Oxford et al. (2015), The interplay between immune maturation, age, chronic viral infection and environment (PubMed)
- [1216] Yin et al. (2015), Aged monkey brains reveal the role of ubiquitin-conjugating enzyme UBE2N in the synaptosomal accumulation of mutant huntingtin (PubMed)
- [1183] Zheng et al. (2014), Aged Chinese rhesus macaques suffer severe phenotypic T- and B-cell aging accompanied with sex differences (PubMed)
- [1184] Colman et al. (2014), Caloric restriction reduces age-related and all-cause mortality in rhesus monkeys (PubMed)
- [1213] Paredes et al. (2014), Age-related alterations of plasma glutathione and oxidation of redox potentials in chimpanzee (Pan troglodytes) and rhesus monkey (Macaca mulatta) (PubMed)
- [1122] Chen et al. (2013), Brain aging in humans, chimpanzees (Pan troglodytes), and rhesus macaques (Macaca mulatta): magnetic resonance imaging studies of macro- and microstructural changes (PubMed)
- [1143] Nussey et al. (2013), Senescence in natural populations of animals: widespread evidence and its implications for bio-gerontology (PubMed)
- [1101] Asquith et al. (2012), Age-dependent changes in innate immune phenotype and function in rhesus macaques (Macaca mulatta) (PubMed)
- [1074] Mattison et al. (2012), Impact of caloric restriction on health and survival in rhesus monkeys from the NIA study (PubMed)
- [1090] Coe et al. (2012), Immune senescence in old and very old rhesus monkeys: reduced antibody response to influenza vaccination (PubMed)
- [1087] Hara et al. (2012), Neuronal and morphological bases of cognitive decline in aged rhesus monkeys (PubMed)
- [1103] Lazic (2012), Modeling hippocampal neurogenesis across the lifespan in seven species (PubMed)
- [1136] Gomes et al. (2011), Comparative biology of mammalian telomeres: hypotheses on ancestral states and the roles of telomeres in longevity determination (PubMed)
- [0920] Bendlin et al. (2011), Effects of aging and calorie restriction on white matter in rhesus macaques (PubMed)
- [0938] Haberthur et al. (2010), Immune senescence in aged nonhuman primates (PubMed)
- [0981] Wolf and Austad (2010), Introduction: Lifespans and Pathologies Present at Death in Laboratory Animals
- [0873] Colman et al. (2009), Caloric restriction delays disease onset and mortality in rhesus monkeys (PubMed)
- [0916] McKiernan et al. (2009), Longitudinal analysis of early stage sarcopenia in aging rhesus monkeys (PubMed)
- [1036] Crean et al. (2007), Oral administration of (+/-)3,4-methylenedioxymethamphetamine and (+)methamphetamine alters temperature and activity in rhesus macaques (PubMed)
- [0727] Downs et al. (2007), Orexin neuronal changes in the locus coeruleus of the aging rhesus macaque (PubMed)
- [0517] Colman et al. (2005), Muscle mass loss in Rhesus monkeys: Age of onset (PubMed)
- [0976] Cohen (2004), Female post-reproductive lifespan: a general mammalian trait (PubMed)
- [0465] Corr (2004), Nuns and monkeys: investigating the behavior of our oldest old (PubMed)
- [0464] Roth et al. (2004), Aging in rhesus monkeys: relevance to human health interventions (PubMed)
- [0149] Goncharova and Lapin (2004), Age-related endocrine dysfunction in nonhuman primates (PubMed)
- [0174] Small et al. (2004), Imaging correlates of brain function in monkeys and rats isolates a hippocampal subregion differentially vulnerable to aging (PubMed)
- [0328] Hinman et al. (2004), Activation of calpain-1 in myelin and microglia in the white matter of the aged rhesus monkey (PubMed)
- [0329] Luebke et al. (2004), Normal aging results in decreased synaptic excitation and increased synaptic inhibition of layer 2/3 pyramidal cells in the monkey prefrontal cortex (PubMed)
- [0330] Zhang et al. (2004), Age-related alterations in cytochrome c-mediated caspase activation in rhesus macaque monkey (Macaca mulatta) brains (PubMed)
- [0331] Fukumoto et al. (2004), Beta-secretase activity increases with aging in human, monkey, and mouse brain (PubMed)
- [0152] Muehlenbein et al. (2003), Dehydroepiandrosterone-sulfate as a biomarker of senescence in male non-human primates (PubMed)
- [0601] Bodkin et al. (2003), Mortality and morbidity in laboratory-maintained Rhesus monkeys and effects of long-term dietary restriction (PubMed)
- [0095] Shimizu et al. (2003), In vitro aging of macaque adherent cells: similar pattern of cellular aging between human and macaque (PubMed)
- [0610] Ernest (2003), Life history characteristics of placental non-volant mammals
- [0681] Peter Kappeler and Michael Pereira (2003), Primate Life Histories and Socioecology
- [0332] Fowler et al. (2002), Effects of caloric restriction and aging on the auditory function of rhesus monkeys (Macaca mulatta): The University of Wisconsin Study (PubMed)
- [0157] Goncharova and Lapin (2002), Effects of aging on hypothalamic-pituitary-adrenal system function in non-human primates (PubMed)
- [0467] Lindenfors (2002), Sexually antagonistic selection on primate size
- [0333] Roth et al. (2001), Dietary caloric restriction prevents the age-related decline in plasma melatonin levels of rhesus monkeys (PubMed)
- [0334] Kayo et al. (2001), Influences of aging and caloric restriction on the transcriptional profile of skeletal muscle from rhesus monkeys (PubMed)
- [0430] Moscrip et al. (2000), Locomotor activity in female rhesus monkeys: assessment of age and calorie restriction effects (PubMed)
- [0335] Colman et al. (1999), Skeletal effects of aging in male rhesus monkeys (PubMed)
- [0434] Ronald Nowak (1999), Walker's Mammals of the World
- [0463] Austad (1997), Small nonhuman primates as potential models of human aging (PubMed)
- [0235] Gearing et al. (1996), A beta40 is a major form of beta-amyloid in nonhuman primates (PubMed)
- [0336] Lane et al. (1996), Calorie restriction lowers body temperature in rhesus monkeys, consistent with a postulated anti-aging mechanism in rodents (PubMed)
- [0455] Virginia Hayssen et al. (1993), Asdell's Patterns of Mammalian Reproduction: A Compendium of Species-Specific Data
- [0713] Martin et al. (1991), Amyloid precursor protein in aged nonhuman primates (PubMed)
- [0390] Ingram et al. (1990), Dietary restriction and aging: the initiation of a primate study (PubMed)
- [0058] Finch et al. (1990), Slow mortality rate accelerations during aging in some animals approximate that of humans (PubMed)
- [0002] Caleb Finch (1990), Longevity, Senescence, and the Genome
- [0075] Selkoe et al. (1987), Conservation of brain amyloid proteins in aged mammals and humans with Alzheimer's disease (PubMed)
- [0680] Wootton (1987), The effects of body mass, phylogeny, habitat, and trophic level on mammalian age at first reproduction
- [0679] Harvey and Clutton-Brock (1985), Life-history variation in primates
- [0731] Zullinger et al. (1984), Fitting sigmoid equations to mammalian growth curves
- [0391] Bito et al. (1982), Age-dependent loss of accommodative amplitude in rhesus monkeys: an animal model for presbyopia (PubMed)
- [0059] Tolmasoff et al. (1980), Superoxide dismutase: correlation with life-span and specific metabolic rate in primate species (PubMed)
External Resources
- Integrated Taxonomic Information System
- ITIS 180099
- Animal Diversity Web
- ADW account (if available)
- Encyclopaedia of Life
- Search EOL
- NCBI Taxonomy
- Taxonomy ID 9544
- Entrez
- Search all databases
- Ageing Literature
- Search Google Scholar or Search PubMed
- Images
- Google Image search
- Internet
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