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Published on: July 19, 2019
A novel heterogeneous network-based method for drug response prediction in cancer cell lines
Fei Zhang1, Minghui Wang2,3, Jianing Xi4
1School of Information Science and Technology, University of Science and Technology of China, Hefei, AH230027, China.
Abstract:
An enduring challenge in personalized medicine lies in selecting a suitable drug for each individual patient. Here we concentrate on predicting drug responses based on a cohort of genomic, chemical structure, and target information. Therefore, a recently study such as GDSC has provided an unprecedented opportunity to infer the potential relationships between cell line and drug. While existing approach rely primarily on regression, classification or multiple kernel learning to predict drug responses. Synthetic approach indicates drug target and protein-protein interaction could have the potential to improve the prediction performance of drug response. In this study, we propose a novel heterogeneous network-based method, named as HNMDRP, to accurately predict cell line-drug associations through incorporating heterogeneity relationship among cell line, drug and target. Compared to previous study, HNMDRP can make good use of above heterogeneous information to predict drug responses. The validity of our method is verified not only by plotting the ROC curve, but also by predicting novel cell line-drug sensitive associations which have dependable literature evidences. This allows us possibly to suggest potential sensitive associations among cell lines and drugs. Matlab and R codes of HNMDRP can be found at following https://github.com/USTC-HIlab/HNMDRP .
Insights
Predicting individual drug responses is key for personalized medicine. This study introduces HNMDRP, a novel network-based method that integrates cell line, drug, and target data to accurately predict drug responses and identify sensitive cell line-drug associations.
Area of Science:
- Bioinformatics
- Computational Biology
- Genomics
Background:
- Personalized medicine faces challenges in selecting optimal drugs for individual patients.
- Genomic, chemical structure, and target information are crucial for predicting drug responses.
- Existing methods often rely on regression or classification, with potential for improvement using drug target and protein-protein interactions.
Purpose of the Study:
- To develop a novel heterogeneous network-based method (HNMDRP) for accurate prediction of cell line-drug associations.
- To leverage heterogeneous information including cell line, drug, and target data for improved drug response prediction.
- To identify potential sensitive cell line-drug associations for therapeutic guidance.
Main Methods:
- Proposed a novel heterogeneous network-based method named HNMDRP.
- Incorporated heterogeneous relationships among cell lines, drugs, and targets.
- Utilized genomic, chemical structure, and target information for prediction.
Main Results:
- HNMDRP accurately predicts cell line-drug associations.
- The method effectively utilizes heterogeneous information for enhanced prediction performance.
- Validated through ROC curve analysis and prediction of novel, literature-supported cell line-drug sensitive associations.
Conclusions:
- HNMDRP offers a powerful approach for predicting drug responses in personalized medicine.
- The method successfully integrates diverse biological data for improved accuracy.
- Enables the suggestion of potential sensitive cell line-drug associations, aiding therapeutic strategies.
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