| URL: | https://muscle.coffeeprot.com |
| Full name: | The data dashboard for skeletal muscle proteome-wide systems genetics |
| Description: | MuscleProt contained thousands of associations between protein abundance and phenotypes and can be accessed online to identify regulators of muscle function. |
| Year founded: | 2022 |
| Last update: | |
| Version: | v1.0 |
| Accessibility: |
Accessible
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| Country/Region: | Australia |
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| University/Institution: | University of Melbourne |
| Address: | Department of Anatomy and Physiology, University of Melbourne, Melbourne, Australia. |
| City: | Melbourne |
| Province/State: | |
| Country/Region: | Australia |
| Contact name (PI/Team): | Benjamin L Parker |
| Contact email (PI/Helpdesk): | ben.parker@unimelb.edu.au |
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Proteome-wide systems genetics identifies UFMylation as a regulator of skeletal muscle function. [PMID: 36472367]
Improving muscle function has great potential to improve the quality of life. To identify novel regulators of skeletal muscle metabolism and function, we performed a proteomic analysis of gastrocnemius muscle from 73 genetically distinct inbred mouse strains, and integrated the data with previously acquired genomics and >300 molecular/phenotypic traits via quantitative trait loci mapping and correlation network analysis. These data identified thousands of associations between protein abundance and phenotypes and can be accessed online (https://muscle.coffeeprot.com/) to identify regulators of muscle function. We used this resource to prioritize targets for a functional genomic screen in human bioengineered skeletal muscle. This identified several negative regulators of muscle function including UFC1, an E2 ligase for protein UFMylation. We show UFMylation is up-regulated in a mouse model of amyotrophic lateral sclerosis, a disease that involves muscle atrophy. Furthermore, in vivo knockdown of UFMylation increased contraction force, implicating its role as a negative regulator of skeletal muscle function. |