Turning strains into strengths for understanding psychiatric disorders

There is a paucity in the development of new mechanistic insights and therapeutic approaches for treating psychiatric disease. One of the major challenges is reflected in the growing consensus that risk for these diseases is not determined by a single gene, but rather is polygenic, arising from the...

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Veröffentlicht in:Molecular psychiatry 2020-12, Vol.25 (12), p.3164-3177
Hauptverfasser: Moore, Shannon J., Murphy, Geoffrey G., Cazares, Victor A.
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container_issue 12
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container_title Molecular psychiatry
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creator Moore, Shannon J.
Murphy, Geoffrey G.
Cazares, Victor A.
description There is a paucity in the development of new mechanistic insights and therapeutic approaches for treating psychiatric disease. One of the major challenges is reflected in the growing consensus that risk for these diseases is not determined by a single gene, but rather is polygenic, arising from the action and interaction of multiple genes. Canonically, experimental models in mice have been designed to ascertain the relative contribution of a single gene to a disease by systematic manipulation (e.g., mutation or deletion) of a known candidate gene. Because these studies have been largely carried out using inbred isogenic mouse strains, in which there is no (or very little) genetic diversity among subjects, it is difficult to identify unique allelic variants, gene modifiers, and epigenetic factors that strongly affect the nature and severity of these diseases. Here, we review various methods that take advantage of existing genetic diversity or that increase genetic variance in mouse models to (1) strengthen conclusions of single-gene function; (2) model diversity among human populations; and (3) dissect complex phenotypes that arise from the actions of multiple genes.
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45/41
631/208
631/378
64/110
64/60
692/699/476
Alleles
Animal models
Animals
Behavioral Sciences
Biological diversity
Biological Psychology
Diagnosis
Epigenetics
Gene deletion
Genes
Genetic aspects
Genetic diversity
Genetic engineering
Inbreeding
Medicine
Medicine & Public Health
Mental disorders
Mental Disorders - genetics
Mental illness
Mice
Mice, Inbred Strains
Multifactorial Inheritance - genetics
Neurosciences
Pharmacotherapy
Phenotype
Phenotypes
Psychiatric research
Psychiatry
Review Article
Risk factors
title Turning strains into strengths for understanding psychiatric disorders
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