Distinct transcriptome expression of the temporal cortex of the primate Microcebus murinus during brain aging versus Alzheimer's disease-like pathology. (41/76)

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Age-related cerebral atrophy in nonhuman primates predicts cognitive impairments. (42/76)

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Physiological flexibility and acclimation to food shortage in a heterothermic primate. (43/76)

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Cognitive performances are selectively enhanced during chronic caloric restriction or resveratrol supplementation in a primate. (44/76)

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Does body posture influence hand preference in an ancestral primate model? (45/76)

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The development of small primate models for aging research. (46/76)

Nonhuman primate (NHP) aging research has traditionally relied mainly on the rhesus macaque. But the long lifespan, low reproductive rate, and relatively large body size of macaques and related Old World monkeys make them less than ideal models for aging research. Manifold advantages would attend the use of smaller, more rapidly developing, shorter-lived NHP species in aging studies, not the least of which are lower cost and the ability to do shorter research projects. Arbitrarily defining "small" primates as those weighing less than 500 g, we assess small, relatively short-lived species among the prosimians and callitrichids for suitability as models for human aging research. Using the criteria of availability, knowledge about (and ease of) maintenance, the possibility of genetic manipulation (a hallmark of 21st century biology), and similarities to humans in the physiology of age-related changes, we suggest three species--two prosimians (Microcebus murinus and Galago senegalensis) and one New World monkey (Callithrix jacchus)--that deserve scrutiny for development as major NHP models for aging studies. We discuss one other New World monkey group, Cebus spp., that might also be an effective NHP model of aging as these species are longer-lived for their body size than any primate except humans.  (+info)

Do solitary foraging nocturnal mammals plan their routes? (47/76)

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Distribution of olfactory and nonolfactory surface area in the nasal fossa of Microcebus murinus: implications for microcomputed tomography and airflow studies. (48/76)

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