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Wang, Panwen

https://orcid.org/0000-0002-4614-8970

Mayo Clinic

Mayo Clinic

Citations 32

Applications of integrative OMICs approaches to gene regulation studies
Wang, Panwen , Wang, Junwen , Qin, Jing , Yan, Bin , Hu, Yaohua , Wang, Junwen

Quantitative Biology | November 19, 2016 | Volume: 4 | Issue: 4 | Pages: 283-301

10.1007/s40484-016-0085-y Get It

BackgroundFunctional genomics employs dozens of OMICs technologies to explore the functions of DNA, RNA and protein regulators in gene regulation processes. Despite each of these technologies being powerful tools on their own, like the parable of blind men and an elephant, any one single technology has a limited ability to depict the complex regulatory system. Integrative OMICS approaches have emerged and become an important area in biology and medicine. It provides a precise and effective way to study gene regulations.ResultsThis article reviews current popular OMICs technologies, OMICs data integration strategies, and bioinformatics tools used for multi‐dimensional data integration. We highlight the advantages of these methods, particularly in elucidating molecular basis of biological regulatory mechanisms.ConclusionsTo better understand the complexity of biological processes, we need powerful bioinformatics tools to integrate these OMICs data. Integrating multi‐dimensional OMICs data will generate novel insights into system‐level gene regulations and serves as a foundation for further hypothesis‐driven research.
Predicting regulatory variants with composite statistic
Li, Mulin Jun , Liu, Zipeng , Wu, Jiexing , Wang, Panwen , Zhu, Yun , Xia, Zhengyuan , Sham, Pak C. , Kocher, Jean-Pierre A., Liu, Jun S. , Li, Miaoxin, Wang, Junwen , Pan, Zhicheng , Xu, Feng , Kocher, Jean-Pierre A., Wang, Junwen , Xia, Zhengyuan

Bioinformatics | June 7, 2016 | Volume: 32 | Issue: 18 | Pages: 2729-2736

10.1093/bioinformatics/btw288 Get It

Abstract Motivation: Prediction and prioritization of human non-coding regulatory variants is critical for understanding the regulatory mechanisms of disease pathogenesis and promoting personalized medicine. Existing tools utilize functional genomics data and evolutionary information to evaluate the pathogenicity or regulatory functions of non-coding variants. However, different algorithms lead to inconsistent and even conflicting predictions. Combining multiple methods may increase accuracy in regulatory variant prediction. Results: Here, we compiled an integrative resource for predictions from eight different tools on functional annotation of non-coding variants. We further developed a composite strategy to integrate multiple predictions and computed the composite likelihood of a given variant being regulatory variant. Benchmarked by multiple independent causal variants datasets, we demonstrated that our composite model significantly improves the prediction performance. Availability and Implementation: We implemented our model and scoring procedure as a tool, named PRVCS, which is freely available to academic and non-profit usage at http://jjwanglab.org/PRVCS. Contact: wang.junwen@mayo.edu, jliu@stat.harvard.edu, or limx54@gmail.com Supplementary information: Supplementary data are available at Bioinformatics online.