Abstract |
Existing drug discovery processes follow a reductionist model of "one-drug-one-gene-one-disease," which is inadequate to tackle complex diseases involving multiple malfunctioned genes. The availability of big omics data offers opportunities to transform drug discovery process into a new paradigm of systems pharmacology that focuses on designing drugs to target molecular interaction networks instead of a single gene. Here, we develop a reliable multi-rank, multi-layered recommender system, ANTENNA, to mine large-scale chemical genomics and disease association data for prediction of novel drug-gene-disease associations. ANTENNA integrates a novel tri-factorization based dual-regularized weighted and imputed One Class Collaborative Filtering (OCCF) algorithm, tREMAP, with a statistical framework based on Random Walk with Restart and assess the reliability of specific predictions. In the benchmark, tREMAP clearly outperforms the single-rank OCCF. We apply ANTENNA to a real-world problem: repurposing old drugs for new clinical indications without effective treatments. We discover that FDA-approved drug diazoxide can inhibit multiple kinase genes responsible for many diseases including cancer and kill triple negative breast cancer (TNBC) cells efficiently [Formula: see text]. TNBC is a deadly disease without effective targeted therapies. Our finding demonstrates the power of big data analytics in drug discovery and developing a targeted therapy for TNBC.
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Authors | Annie Wang, Hansaim Lim, Shu-Yuan Cheng, Lei Xie |
Journal | IEEE/ACM transactions on computational biology and bioinformatics
(IEEE/ACM Trans Comput Biol Bioinform)
2018 Nov-Dec
Vol. 15
Issue 6
Pg. 1960-1967
ISSN: 1557-9964 [Electronic] United States |
PMID | 29993812
(Publication Type: Journal Article, Research Support, N.I.H., Extramural)
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Chemical References |
- Antineoplastic Agents
- Diazoxide
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Topics |
- Algorithms
- Antineoplastic Agents
(pharmacology)
- Cell Line, Tumor
- Cell Survival
(drug effects)
- Computational Biology
(methods)
- Data Mining
(methods)
- Diazoxide
(pharmacology)
- Drug Repositioning
(methods)
- Humans
- Machine Learning
- Reproducibility of Results
- Software
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