Database Commons
Database Commons

a catalog of worldwide biological databases

Database Profile

MuscleProt

General information

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
Country/Region: Australia

Classification & Tag

Data type:
Data object:
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Major species:
Keywords:

Contact information

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

Publications

36472367
Proteome-wide systems genetics identifies UFMylation as a regulator of skeletal muscle function. [PMID: 36472367]
Jeffrey Molendijk, Ronnie Blazev, Richard J Mills, Yaan-Kit Ng, Kevin I Watt, Daryn Chau, Paul Gregorevic, Peter J Crouch, James B W Hilton, Leszek Lisowski, Peixiang Zhang, Karen Reue, Aldons J Lusis, James E Hudson, David E James, Marcus M Seldin, Benjamin L Parker

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.

Elife. 2022:11() | 12 Citations (from Europe PMC, 2025-12-13)

Ranking

All databases:
2770/6895 (59.84%)
Genotype phenotype and variation:
406/1005 (59.701%)
Interaction:
531/1194 (55.611%)
2770
Total Rank
12
Citations
4
z-index

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Record metadata

Created on: 2023-08-22
Curated by:
Yuxin Qin [2023-09-11]
Xinyu Zhou [2023-09-06]
Yue Qi [2023-08-22]