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Molecular Deconvolution Platform to Establish Disease Mechanisms by Surveying GPCR Signaling.


ABSTRACT: Despite the wealth of genetic information available, mechanisms underlying pathological effects of disease-associated mutations in components of G protein-coupled receptor (GPCR) signaling cascades remain elusive. In this study, we developed a scalable approach for the functional analysis of clinical variants in GPCR pathways along with a complete analytical framework. We applied the strategy to evaluate an extensive set of dystonia-causing mutations in G protein G?olf. Our quantitative analysis revealed diverse mechanisms by which pathogenic variants disrupt GPCR signaling, leading to a mechanism-based classification of dystonia. In light of significant clinical heterogeneity, the mechanistic analysis of individual disease-associated variants permits tailoring personalized intervention strategies, which makes it superior to the current phenotype-based approach. We propose that the platform developed in this study can be universally applied to evaluate disease mechanisms for conditions associated with genetic variation in all components of GPCR signaling.

SUBMITTER: Masuho I 

PROVIDER: S-EPMC6077248 | biostudies-literature | 2018 Jul

REPOSITORIES: biostudies-literature

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Molecular Deconvolution Platform to Establish Disease Mechanisms by Surveying GPCR Signaling.

Masuho Ikuo I   Chavali Sreenivas S   Muntean Brian S BS   Skamangas Nickolas K NK   Simonyan Kristina K   Patil Dipak N DN   Kramer Grant M GM   Ozelius Laurie L   Babu M Madan MM   Martemyanov Kirill A KA  

Cell reports 20180701 3


Despite the wealth of genetic information available, mechanisms underlying pathological effects of disease-associated mutations in components of G protein-coupled receptor (GPCR) signaling cascades remain elusive. In this study, we developed a scalable approach for the functional analysis of clinical variants in GPCR pathways along with a complete analytical framework. We applied the strategy to evaluate an extensive set of dystonia-causing mutations in G protein Gαolf. Our quantitative analysis  ...[more]

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