Computational Drug Discovery Methods
118 researchers across 10 institutions
Computational drug discovery methods focus on developing and applying computational approaches to identify and optimize potential new medicines. This area explores how to predict the interactions between small molecules and biological targets, such as proteins and nucleic acids, using techniques like molecular docking, virtual screening, and quantitative structure-activity relationships (QSAR). Researchers investigate methods for designing novel molecular structures with desired pharmacological properties, assessing their potential efficacy, and predicting their pharmacokinetic and toxicological profiles. The work also involves developing and refining algorithms and software tools to accelerate the drug discovery pipeline, from initial target identification to lead compound optimization.
In Arkansas, this research has implications for the state's growing biotechnology sector and its public health priorities. Advances in computational drug discovery can contribute to the development of new therapeutics for diseases prevalent in the region, potentially improving health outcomes for Arkansans. Furthermore, the methodologies developed can be applied to understand the effects of environmental exposures or to discover compounds derived from natural products found within the state, linking computational work to Arkansas's agricultural and ecological resources.
This research area draws upon expertise in computer science, chemistry, biology, and pharmacology, fostering interdisciplinary collaborations. Engagement spans multiple Arkansas institutions, bringing together faculty and researchers from diverse backgrounds to address complex challenges in modern medicine development. The work is supported by federal grants and involves a mix of experienced faculty and emerging researchers.
Top Researchers
| Name | Institution | h-index | Citations | Career Stage | Badges |
|---|---|---|---|---|---|
| Minjun Chen | NCTR | 42 | 5,690 | High Impact | |
| Wei Luo | University of Arkansas | 42 | 7,089 | ||
| Tucker A. Patterson | NCTR | 36 | 8,216 | High Impact | |
| Jana Shen | University of Arkansas | 33 | 2,920 | ||
| Mary Qu Yang | UA Little Rock | 30 | 5,236 | ARA High Impact | |
| Sugunadevi Sakkiah | NCTR | 29 | 2,957 | High Impact | |
| Feng Wang | University of Arkansas | 29 | 3,446 | Grant PI High Impact | |
| William G. Harter | University of Arkansas | 28 | 3,469 | High Impact | |
| Weigong Ge | NCTR | 25 | 6,786 | High Impact | |
| Darin E. Jones | UAMS | 23 | 1,272 | High Impact | |
| Mohammad A. Alam | Arkansas State University | 22 | 1,105 | Grant PI High Impact | |
| Nazim Uddin Emon | University of Arkansas | 21 | 1,520 | High Impact | |
| Adepu Kiran Kumar | UAMS | 21 | 3,212 | High Impact | |
| Mahmoud Moradi | University of Arkansas | 21 | 1,545 | Grant PI High Impact | |
| Prabhash Nath Tripathi | UAMS | 20 | 1,728 | High Impact | |
| Chunda Feng | University of Arkansas | 20 | 1,194 | Grants | |
| Dongying Li | NCTR | 20 | 1,222 | ||
| Svetoslav Slavov | NCTR | 19 | 1,810 | ||
| Komala Arsi | University of Arkansas | 18 | 953 | ||
| Jaideep B. Bharate | UAMS | 16 | 767 |
Related Research Areas
Strategic Outlook
Global signals from OpenAlex for this research area: where the field is growing, how concentrated leadership is, and where Arkansas sits relative to the world's top-100 institutions. Descriptive only — surfaced as input to the conversation about where to place bets, not a recommendation. Signal confidence: LOW
Top US institutions in this area
- 1 Harvard University 1,924
- 2 National Institutes of Health 1,494
- 3 University of California San Diego 1,453
- 4 Pfizer (United States) 1,342
- 5 University of North Carolina at Chapel Hill 1,265
Cross-Institution Connections
Researchers at different institutions with overlapping expertise in Computational Drug Discovery Methods.