MDIPA
MDIPA predicts potential interactions between microRNAs and drugs using non-negative matrix factorization to prioritize regulatory relationships relevant to disease mechanisms and drug discovery.
Key Features:
- Matrix factorization-based methodology: MDIPA employs non-negative matrix factorization integrating experimentally validated drug–microRNA interaction data with similarity measures to predict unknown interactions.
- Utilization of similarity matrices: The approach constructs a path-based microRNA similarity matrix and a drug similarity matrix derived from drug structural information to inform predictions.
- Performance evaluation: Performance was assessed by comparison with four state-of-the-art prediction methods using cross-validation and an independent dataset.
- Case study validation: Selected predictions were examined with a molecular docking case study focusing on breast cancer.
Scientific Applications:
- Regulatory role analysis: Exploring microRNA regulation of gene expression and their implications in disease development.
- Therapeutic target identification: Predicting how drugs can modulate microRNA functions to identify novel therapeutic targets and elucidate drug mechanisms.
- Drug discovery and personalized medicine: Prioritizing microRNA–drug interactions to support drug discovery and personalized medicine research.
Methodology:
Integration of experimentally validated drug–microRNA interactions; construction of a path-based microRNA similarity matrix and a drug structural similarity matrix; prediction via non-negative matrix factorization; evaluation using cross-validation and an independent dataset against four methods; validation of selected predictions by molecular docking in a breast cancer case study.
Topics
Details
- Tool Type:
- command-line tool, library
- Programming Languages:
- Python
- Added:
- 1/18/2021
- Last Updated:
- 2/20/2021
Operations
Publications
Jamali AA, Kusalik A, Wu F. MDIPA: a microRNA–drug interaction prediction approach based on non-negative matrix factorization. Bioinformatics. 2020;36(20):5061-5067. doi:10.1093/bioinformatics/btaa577. PMID:33212495.