2. Endothelial mechanotransduction Peter F. Davies and Brian P. Helmke;
3. Role of the plasma membrane in endothelial cell mechanosensation of shear stress Peter J. Butler and Shu Chien;
4. Mechanotransduction by membrane mediated activation of G protein coupled receptors and G proteins Yan-Liang Zhang, John A. Frangos and Mirianas Chachisvilis;
5. Cellular mechanotransduction: interactions with the extracellular matrix Andrew D. Doyle and Kenneth M. Yamada;
6. Role of ion channels in cellular mechanotransduction: lessons from the vascular endothelium Abdul I. Barakat and Andrea Gojova;
7. Towards a modular analysis of cell mechano-sensing and transduction: an operations manual for cell mechanics Benjamin J. Dubin-Thaler and Michael P. Sheetz;
8. Tensegrity as a mechanism for integrating molecular and cellular mechanotransduction mechanisms Donald E. Ingber;
9. Nuclear mechanics and mechanotransduction Shinji Deguchi and Masaaki Sato;
10. Microtubule bending and breaking in cellular mechanotransduction Andrew D. Bicek, Dominique Seetapun, and David J. Odde;
11. A molecular perspective on mechanotransduction in focal adhesions Seung E. Lee, Roger D. Kamm and Mohammad R. K. Mofrad;
12. Protein conformational change: a molecular basis of mechanotransduction Gang Bao;
13. Translating mechanical force into discrete biochemical signal changes: multimodularity imposes unique properties to mechanotransductive proteins Vesa P. Hytönen, Michael L. Smith and Viola Vogel;
14. Mechanotransduction through local autocrine signaling Nikola Kojic and Daniel J. Tschumperlin;
15. The interaction between fluid-wall shear stress and solid circumferential strain affects endothelial cell mechanobiology John M. Tarbell;
16. Micro- and nanoscale force techniques for mechanotransduction Nathan J. Sniadecki, Wesley R. Legant and Christopher S. Chen;
17. Mechanical regulation of stem cells: implications in tissue remodeling Kyle Kurpinski, Randall R. R. Janairo, Shu Chien and Song Li;
18. Mechanotransduction: role of nuclear pore mechanics and nucleocytoplasmic transport Christopher B. Wolf and Mohammad R. K. Mofrad;
19. Summary and outlook Mohammad R. K. Mofrad and Roger D. Kamm.
Dr Mohammad Reza Kaazempur Mofrad is currently Assistant Professor of Bioengineering at the University of California, Berkeley, where he is also an affiliated faculty member of graduate programs in applied science and technology, biophysics, computational biology and genomics, and bioengineering (UCSF-Berkeley). Dr Mofrad received his B.A.Sc. degree from Sharif University of Technology in Tehran, Iran. After earning M.A.Sc. and Ph.D. degrees from the Universities of Waterloo and Toronto, respectively, he spent two years at MIT and Harvard Medical School/Massachusetts General Hospital as a post-doctoral Fellow. Before joining the faculty at Berkeley, Dr Mofrad was a Principal Research Scientist at MIT for nearly two years. At Berkeley, he has developed and taught several courses, namely Cell Mechanics and Mechanotransduction, Introductory Biomechanics, Molecular Cell Biomechanics, and Biological Transport Phenomena.
Roger D. Kamm Massachusetts Institute of Technology.
Dr Roger D. Kamm has long been interested in biomechanics, beginning with his work in vascular and pulmonary physiology and leading to his more recent work in cell and molecular mechanics in the context of cellular responses to mechanical stress. Dr Kamm has been on the faculty at MIT since receiving his Ph.D. in 1977 and now holds a joint appointment in the Biological Engineering and Mechanical Engineering Departments. He is currently the Chair of the US National Committee on Biomechanics and the World Council on Biomechanics, and he is Director of the Global Enterprise for MicroMechanics and Molecular Medicine. Kamm has a long-standing interest in bioengineering education, directs a NIH-funded biomechanics training program, co-chaired the committee to form MIT's new undergraduate major in biological engineering, and helped to develop MIT's course on molecular, cellular, and tissue biomechanics.