Title :
The Simbios National Center: Systems Biology in Motion
Author :
Schmidt, Jeanette P. ; Delp, Scott L. ; Sherman, Michael A. ; Taylor, Charles A. ; Pande, Vijay S. ; Altman, Russ B.
Author_Institution :
Dept. of Bioeng., Stanford Univ., Stanford, CA
Abstract :
Physics-based simulation is needed to understand the function of biological structures and can be applied across a wide range of scales, from molecules to organisms. Simbios (the national center for physics-based simulation of biological structures, http://www.simbios.stanford.edu/</weblink>) is one of seven NIH-supported national centers for biomedical computation. This article provides an overview of the mission and achievements of Simbios, and describes its place within systems biology. Understanding the interactions between various parts of a biological system and integrating this information to understand how biological systems function is the goal of systems biology. Many important biological systems comprise complex structural systems whose components interact through the exchange of physical forces, and whose movement and function is dictated by those forces. In particular, systems that are made of multiple identifiable components that move relative to one another in a constrained manner are multibody systems. Simbios´ focus is creating methods for their simulation. Simbios is also investigating the biomechanical forces that govern fluid flow through deformable vessels, a central problem in cardiovascular dynamics. In this application, the system is governed by the interplay of classical forces, but the motion is distributed smoothly through the materials and fluids, requiring the use of continuum methods. In addition to the research aims, Simbios is working to disseminate information, software and other resources relevant to biological systems in motion.
Keywords :
biology computing; digital simulation; medical computing; physics; NIH; Simbios National Center; biological structures; biomechanical forces; biomedical computation; continuum methods; fluid flow; molecules; organisms; physics-based simulation; systems biology; Biological system modeling; Biological systems; Biology computing; Biomedical computing; Cardiology; Computational modeling; Fluid flow; Organisms; Physics computing; Systems biology; Biomedical computation; RNA folding; cardiovascular dynamics; dynamics; neuromuscular biomechanics; physics-based; protein folding; simulation;
Journal_Title :
Proceedings of the IEEE
DOI :
10.1109/JPROC.2008.925454