- Advanced Materials by Design: Theory and Computation
- African Diaspora and the Atlantic World Research Circle
- Agroecology
- American Indian Studies
- Bioethics
- Biomedical Engineering
- Biophotonics
- Chemical Biology
- Chemistry
- Cognitive Sciences
- Communication Technologies Research
- Comparative Political Economy
- Comparative U.S. Studies
- Computational Sciences
- Computational Systems Biology
- Computer Engineering
- Computer Sciences
- Cultural Studies in a Global Context
- Disability Studies
- Energy Sources and Policy
- Expressive Culture and Diversity in the Upper Midwest
- Food Pathogens and Toxins
- Functional Brain Imaging
- Functional Organic Materials
- Genomics
- Global Governance and International Finance
- Initiative for Studies in Technology Entrepreneurship
- Interdisciplinary Arts Residency Program
- International Environmental Affairs and Global Security
- International Public Affairs
- Land Use
- Law, Society and Justice
- Mathematical Physics - String Theory
- Middle Eastern Studies
- Molecular Biometry
- Nanophase Inorganic Materials and Devices
- Political Economy
- Poverty Studies
- Religious Studies
- Science and Technology Studies
- Stem Cells and Regenerative Medicine
- Structural Biology
- Symbiosis
- Translational Research - Neurodegenerative Diseases
- Very High Energy Astrophysics and Cosmology
- Visual Culture
- Vitamin D
- Women's Health Research/Biology of Sex and Gender Differences
- Zebrafish Biology
Cluster focus
The Computational Systems Biology Cluster emphasizes the integration of molecular, cellular and inter-cellular processes to achieve understanding about how biological systems (including molecular networks, cells, organs and organisms) operate. Such studies rely on computational methods to analyze and integrate data, construct models and simulate the activity of biological systems. A systems approach to biological research is an iterative process that involves identification of the genes and proteins involved in a biological system, characterization of the molecular interactions that underlie the function of the system, and data-driven modeling that integrates networks of gene and protein interactions to develop simulations of the system. Such simulations give rise to predictions about changes in function when the system is perturbed, which, in turn, leads to experimental testing of these hypotheses, refinement of hypotheses, further modeling and further testing. Identification and functional characterization of gene products has far-reaching implications for mechanistic understanding of biological processes as simple as a molecular reaction and as complicated as animal and human health and disease. Such knowledge will lead to development of gene-based interventions to alter function or tools for disease prevention and therapeutics.
Cluster accomplishments
- This cluster helps strengthen existing computational systems biology research on campus and builds upon clusters in genomics, molecular biometry and biophotonics.
- The cluster also interacts with several campus training programs, funded by the National Institutes of Health, in computational biology, genomics and biotechnology.
Cluster structure
This cluster is designed to strengthen the interaction between biomedical scientists who collect a wide range of biomedical data and computational scientists who develop techniques for analyzing such data.
Cluster coordinator, faculty and lead dean
Cluster Coordinator
- David DeMets, Professor and Chair, Department of Biostatistics and Medical Informatics
Cluster Faculty
- Scott Kennedy, Assistant Professor, Pharmacology
- Dongsheng Cai, Assistant Professor, Department of Physiology
Lead Dean
- Robert N. Golden, Dean, School of Medicine and Public Health