Dataset Information

Generation of genetically engineered non-human primate models of brain function and neurological disorders.

ABSTRACT: Research with non-human primates (NHP) has been essential and effective in increasing our ability to find cures for a large number of diseases that cause human suffering and death. Extending the availability and use of genetic engineering techniques to NHP will allow the creation and study of NHP models of human disease, as well as broaden our understanding of neural circuits in the primate brain. With the recent development of efficient genetic engineering techniques that can be used for NHP, there's increased hope that NHP will significantly accelerate our understanding of the etiology of human neurological and neuropsychiatric disorders. In this article, we review the present state of genetic engineering tools used in NHP, from the early efforts to induce exogeneous gene expression in macaques and marmosets, to the latest results in producing germline transmission of different transgenes and the establishment of knockout lines of specific genes. We conclude with future perspectives on the further development and employment of these tools to generate genetically engineered NHP.

SUBMITTER: Park JE

PROVIDER: S-EPMC6463491 | biostudies-literature | 2019 Feb

REPOSITORIES: biostudies-literature

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Generation of genetically engineered non-human primate models of brain function and neurological disorders.

Park Jung Eun JE Silva Afonso C AC

American journal of primatology 20181226 2

Research with non-human primates (NHP) has been essential and effective in increasing our ability to find cures for a large number of diseases that cause human suffering and death. Extending the availability and use of genetic engineering techniques to NHP will allow the creation and study of NHP models of human disease, as well as broaden our understanding of neural circuits in the primate brain. With the recent development of efficient genetic engineering techniques that can be used for NHP, t ...[more]

PMID: 30585654

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Project description:Humans exhibit sex differences in the prevalence and presentation of many psychiatric and neurodevelopmental conditions, including Alzheimer’s disease, autism spectrum disorder (ASD), and schizophrenia; however, the ‘omic’, developmental, and environmental underpinnings of these conditions remain elusive. To illuminate these mechanisms and their interactions, and to identify potential therapies, we need large, sex-specific neurobiological data sets from model organisms whose brains exhibit similar characteristics to those of humans, including comparable sex differences. Among existing models, the rhesus macaque is likely to have the greatest translatability; however, comprehensive analyses of brain sex differences in this species are necessary to demonstrate their relevance to sex-biased human conditions. We present an in-depth investigation of sex differences in the rhesus macaque brain transcriptome (RNA-seq) across 527 samples of 15 regions from 36 free-ranging adult individuals (20F/16M), representing the largest collection of bulk brain gene expression data for this species. We identified hundreds of sex-biased genes throughout the rhesus macaque brain, most of which were shared across regions, suggesting convergent regulatory mechanisms. Similar to studies of human brains, these sex-biased genes are regulated by sex hormones and transcription factors that interact with these hormones, male-biased genes are associated with multiple sex-biased human neurological conditions (e.g., ASD, schizophrenia) and energy metabolism, and female-biased genes are associated with the immune response. We also accurately predicted sex from a relatively small number of genes per region and found that, among genes reported to escape X chromosome inactivation in humans, similar genes are the most predictive of sex both across human tissues and in this dataset. Finally, we demonstrated that sex-biased genes exhibit characteristics that facilitate rapid evolution, including a tendency to be located on the sex chromosomes, more tissue-specific expression, and higher genetic variance for expression. Overall, these findings suggest that the rhesus macaque may be an appropriate model for sex-biased human neurological conditions.

Dataset Information

Generation of genetically engineered non-human primate models of brain function and neurological disorders.

Publications

Generation of genetically engineered non-human primate models of brain function and neurological disorders.

Similar Datasets

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