medRxivGenetic & Genomic MedicinePreprint
Role of FYVE and Coiled-Coil Domain Autophagy Adaptor 1 in severity of COVID-19 infection: from GWAS hit to therapeutic hypothesis
Sandra Paulina SmieszekiD, Bartlomiej P. Przychodzen, Christos M. Polymeropoulos, Vasilios M. PolymeropoulosiD, Mihael H. PolymeropoulosiD
Abstract
Coronaviruses remodel intracellular membranes to form specialized viral replication compartments, such as double-membrane vesicles where viral RNA genome replication takes place. Understanding the factors affecting host response is instrumental to design of therapeutics to prevent or ameliorate the course of infection. As part of explorative tests in hospitalized patients with confirmed COVID-19 infection participating in ODYSSEY trial, we obtained samples for whole genome sequencing analysis as well as for viral genome sequencing. Based on our data, we confirm one of the strongest severity susceptibility locus thus far reported in association with severe COVID-19: 3p21.31 locus with lead variant rs73064425. We further examine the associated region. Interestingly based on LD analysis we report 3 coding mutations within one gene in the region of FYVE and Coiled-Coil Domain Autophagy Adaptor 1 (FYCO1). We specifically focus on the role of FYCO1 modifiers and gain-of-function variants. We report the associations between the region and clinical characteristics in this severe set of COVID-19 patients. We next analyzed expression profiles of FYCO1 across all 466 compounds tested. We selected only those results that showed a significant reduction of expression of FYCO1. The most significant candidate was indomethacin - an anti-inflammatory that could potentially downregulate FYCO1. We hypothesize that via its direct effects on efficiency of viral egress, it may serve as a potent therapeutic decreasing the replication and infectivity of the virus. Clinical studies will be needed to examine the therapeutic utility of indomethacin and other compounds downregulating FYCO1 in COVID-19 infection and other strains of betacoronaviruses.
- organism: human
- assay: whole-genome sequencing
- research focus: GWAS / association mapping
- research focus: variant effect prediction
- research focus: drug response / drug discovery
- approach: statistical model
- approach: experimental assay
- Citations
- 3
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