Welcome from the Director

James B. Bassingthwaighte, M.D., Ph.D.

Professor of Bioengineering and Radiology


The National Simulation Resource Facility for Circulatory Transport and Exchange operates as a part of the Department of Bioengineering in the School of Medicine and the College of Engineering.  It serves as a focal component of the departmental program in Computational and Integrative Biology and serves to provide materials for graduate and undergraduate classes, and settings in which graduate students, postdoctoral fellows, and visiting scientists can expand their careers.

The Resource was created with a focus on studying complex biological systems and networks involved in the transport and exchange of solutes and water in the microvasculature, within whole organs, and within the whole body. While the focus of much of modern biology has been on the study of individual genes, proteins, channels, signaling pathways, and the basic biophysics and biochemistry of cellular and molecular biology, the future trend is a shift of focus to studying systems. The premise is that only by analyzing ever more complete systems can one understand the enchanting beauty and remarkable behaviors of intact, functioning organisms.

The analysis of biological systems requires the development of powerful new tools, computational and intellectual, that aid the investigator in the analysis of experimental data, and allow these results to be integrated with the other types of observations present in the literature. Mathematical models can serve as one such vehicle, but, more than that, they allow rapid, sensitive, and semi-automated approaches to designing the most discriminating experiments, expressing data in quantitative and mechanistic terms, and in distinguishing good hypotheses from better ones.

The Resource Facility and the programs in computational and integrative bioengineering are committed to the development of tools for the advancement of medical science, where the problems range from the behavior of gene regulators and protein insertion into membranes to the physiological or pathophysiological functioning of the intact system. Our expertise lies in bringing together the molecular events into an understanding of the heart and lung, but most of the methods have direct applicability in other areas. Our models and simulation analysis systems are being used by investigators and collaborators around the world in the elucidation of events in brains, livers, and other organs. Because our support has come from the National Institutes of Health National Center for Research Resources, we release our software, models and modeling systems for general use by the investigative community. You are welcome to download whatever is obviously useful to you, and to browse our pages to see if we are working toward something of interest to you.

We believe our Resource Facility and our graduate programs in Computational and Integrative Bioengineering provide unique opportunities for collaboration with farseeing young scientists and investigators at other universities. The interdisciplinary training we can offer here and our focus on systems analysis provides students with the opportunity to be at the leading edge of contemporary biology and medicine. The courses we offer to visiting scientists each year extend these opportunities to faculty and private sector investigators anywhere.

We look forward to collaborating with you in research and in education.

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Highlights

JSim Beta 1.5 Now Available

Model of the Myocardial Fatty Acid Uptake,
a report by Marc Musters (PDF format)

NSR Newsletter, September 2002

JSim Beta 1.4

XSIM (v3.21)

Action Potential Model for Canine Ventricular Cell

Faculty Position in Bioengineering