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Novel Mouse Model of Murine Cytomegalovirus-Induced Adaptive NK Cells.新型鼠巨细胞病毒诱导适应性 NK 细胞模型。
Immunohorizons. 2022 Jan 14;6(1):8-15. doi: 10.4049/immunohorizons.2100113.
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Genetic and immunological contributors to virus-induced paralysis.病毒诱导麻痹的遗传和免疫学因素
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利用合作性连锁群和多样性远交系小鼠进行免疫学研究。

Using the Collaborative Cross and Diversity Outbred Mice in Immunology.

机构信息

Barbara Ann Karmanos Cancer Institute, Hudson-Webber Cancer Research Center, Detroit, Michigan.

University of Arizona, Valley Fever Center for Excellence, Tucson, Arizona.

出版信息

Curr Protoc. 2022 Sep;2(9):e547. doi: 10.1002/cpz1.547.

DOI:10.1002/cpz1.547
PMID:36066328
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9612550/
Abstract

The Collaborative Cross (CC) and the Diversity Outbred (DO) stock mouse panels are the most powerful murine genetics tools available to the genetics community. Together, they combine the strength of inbred animal models with the diversity of outbred populations. Using the 63 CC strains or a panel of DO mice, each derived from the same 8 parental mouse strains, researchers can map genetic contributions to exceptionally complex immunological and infectious disease traits that would require far greater powering if performed by genome-wide association studies (GWAS) in human populations. These tools allow genes to be studied in heterozygous and homozygous states and provide a platform to study epistasis between interacting loci. Most importantly, once a quantitative phenotype is investigated and quantitative trait loci are identified, confirmatory genetic studies can be performed, which is often problematic using the GWAS approach. In addition, novel stable mouse models for immune phenotypes are often derived from studies utilizing the DO and CC mice that can serve as stronger model systems than existing ones in the field. The CC/DO systems have contributed to the fields of cancer immunology, autoimmunity, vaccinology, infectious disease, allergy, tissue rejection, and tolerance but have thus far been greatly underutilized. In this article, we present a recent review of the field and point out key areas of immunology that are ripe for further investigation and awaiting new CC/DO research projects. We also highlight some of the strong computational tools that have been developed for analyzing CC/DO genetic and phenotypic data. Additionally, we have formed a centralized community on the CyVerse infrastructure where immunogeneticists can utilize those software tools, collaborate with groups across the world, and expand the use of the CC and DO systems for investigating immunogenetic phenomena. © 2022 Wiley Periodicals LLC.

摘要

协同杂交 (CC) 和多样性远交 (DO) 品系鼠面板是遗传学界可获得的最强大的鼠遗传学工具。它们共同结合了近交动物模型的优势和远交种群的多样性。使用 63 个 CC 株系或 DO 小鼠面板,每个都源自相同的 8 个亲本鼠株系,研究人员可以对遗传因素进行映射,以研究异常复杂的免疫和传染病特征,如果在人类中进行全基因组关联研究 (GWAS),则需要更大的力量。这些工具允许在杂合子和纯合子状态下研究基因,并提供一个研究相互作用基因座之间上位性的平台。最重要的是,一旦对定量表型进行研究并确定了数量性状基因座,就可以进行验证性遗传研究,而使用 GWAS 方法通常会出现问题。此外,经常利用 DO 和 CC 小鼠衍生出用于免疫表型的新型稳定的小鼠模型,这些模型可以作为比现有模型更强的模型系统。CC/DO 系统为癌症免疫学、自身免疫、疫苗学、传染病、过敏、组织排斥和耐受等领域做出了贡献,但迄今为止,这些系统的应用还远远不够。在本文中,我们对该领域进行了综述,并指出了免疫学中有待进一步研究的关键领域,并期待新的 CC/DO 研究项目。我们还强调了一些为分析 CC/DO 遗传和表型数据而开发的强大计算工具。此外,我们在 CyVerse 基础设施上成立了一个集中的免疫遗传学家社区,他们可以在该社区中利用这些软件工具,与世界各地的小组合作,并扩大 CC 和 DO 系统在免疫遗传学现象研究中的应用。