Page 277 - Biomimetics : Biologically Inspired Technologies
P. 277

Bar-Cohen : Biomimetics: Biologically Inspired Technologies DK3163_c009 Final Proof page 263 21.9.2005 3:10am




                    Engineered Muscle Actuators                                                 263

                    Close, R. Effects of cross-union of motor nerves to fast and slow skeletal muscles. Nature 1965, 206:
                         831.
                    Close, R. Dynamic properties of fast and slow skeletal muscles of rat after nerve cross-union. J. Physiol. Lond.
                         1969, 204: 331.
                    Close, R. and Hoh, J.F.Y. Effects of nerve cross-union on fast-twitch and slow-graded muscle fibres in toad. J
                         Physiol. Lond. 1968, 198: 103.
                    Close, R. and Hoh, J.F.Y. Post-tetanic potentiation of twitch contractions of cross-innervated rat fast and slow
                         muscles. Nature 1969, 221: 179.
                    Condorelli, G., Borello, U., De Angelis, L., Latronico, M., Sirabella, D., Coletta, M., Galli, R., Balconi, G.,
                         Follenzi, A., Frati, G., Cusella De Angelis, M.G., Gioglio, L., Amuchastegui, S., Adorini, L., Naldini,
                         L., Vescovi, A., Dejana, E., and Cossu, G. Cardiomyocytes induce endothelial cells to trans-differen-
                         tiate into cardiac muscle: implications for myocardium regeneration. Proc. Natl Acad. Sci. USA 2001,
                         98(19): 10733–10738.
                    Conrad, G.W. et al. Differences in vitro between fibroblast-like cells from cornea, heart, and skin of embryonic
                         chicks. J. Cell Sci. 1977, 26: 119–137.
                    Dennis, R.G. Bipolar implantable stimulator for long-term denervated muscle experiments. Med. Biol. Eng.
                         Comput. Med. Biol. Eng. Comput. 1998 March, 36: 225–228.
                    Dennis, R.G. Engineered skeletal muscle: nerve and tendon tissue interfaces, contractility, excitability, and
                         architecture. In: Functional Tissue Engineering, Guilak, F., Butler, D., Mooney, D., and Goldstein, S.
                         (eds) Springer-Verlag, New York, 2003.
                    Dennis, R.G. and Kosnik, P. Excitability and isometric contractile properties of mammalian skeletal muscle
                         constructs engineered in vitro. In Vitro Cell. Dev. Biol. Anim. 2000, 36(5): 327–335.
                    Dennis, R.G., Dow, D.E., Hsueh, A., and Faulkner, J.A. Excitability of engineered muscle constructs,
                         denervated and denervated-stimulated muscles of rats, and control skeletal muscles in neonatal,
                         young, adult, and old mice and rats. Biophys. J. 2002, 82: 364A.
                    Dial, K.P. and Biewener, A.A. Pectoralis muscle force and power output during different modes of flight in
                         pigeons (Columba livia). J. Exp. Biol. 1993, 176: 31–54.
                    Dickinson, M.H., Farley, C.T., Full, R.J., Koehl, M.A.R., Kram, R., and Lehman, S. How animals move: an
                         integrative view. Science 2000, 288: 100–106.
                    Doane, K.J. and Birk, D.E. Fibroblasts retain their tissue phenotype when grown in three-dimensional collagen
                         gels. Exp. Cell Res. 1991, 195(2): 432–442.
                    Drew, A.F., Liu, H., Davidson, J.M., Daugherty, C.C., and Degen, J.L. Wound-healing defects in mice lacking
                         fibrinogen. Blood 2001, 97(12): 3691–3698.
                    El Oakley, R.M., Ooi, O.C., Bongso, A., and Yacoub, M.H. Myocyte transplantation for myocardial repair: a
                         few good cells can mend a broken heart. Ann. Thorac. Surg. 2001, 71(5): 1724–1733. Review.
                    Evans, C.E. and Trail, I.A. Fibroblast-like cells from tendons differ from skin fibroblasts in their ability to form
                         three-dimensional structures in vitro. J. Hand Surg. Br. Eur. 1998, 23B(5): 633–641.
                    Haase, S., Cederna, P., Dennis, R.G., and Kuzon, W. Peripheral nerve reconstruction using acellular nerve
                         grafts. Surg. Forum 2000, 51: 607–609.
                    Hatta, I., Sugi, H., et al. Stiffness changes in frog skeletal muscle during contraction recorded using ultrasonic
                         waves. J. Physiol. Lond. 1988, 403: 193–209.
                    Hedenstrom, A. and Alerstram, T. Climbing performance of migrating birds as a basis for estimating limits for
                         fuel-carrying capacity and muscle work. J. Exp. Biol. 1992, 164: 19–38.
                    Hoh, J.F.Y. and Close, R. Effects of nerve cross-union on twitch and slow-graded muscle fibres in toad. Austr.
                         J. Exp. Biol. Med. Sci. 1967, 45: 51.
                    Kardon, G. Muscle and tendon morphogenesis in the avian hind limb. Development 1998, 125: 4019–4032.
                    Kosnik, P. and Dennis, R.G., Mesenchymal cell culture: functional mammalian skeletal muscle constructs. In:
                         Methods in Tissue Engineering, Chapter 23, Atala, A. and Lanza, R. (eds), Harcourt, Academic Press,
                         San Diego, California, 2002, 299–306.
                    Kosnik, P. Jr., Dennis, R.G., and Faulkner, J.A. Functional development of engineered skeletal muscle from
                         adult and neonatal rats. Tissue Eng. 2001, 7(5): 573–584.
                    Loeb, G.E. and Gans, C. Electromyography for experimentalists. University of Chicago Press, Chicago,
                         Illinois, 1986.
                    Lutz, G.J. and Rome, L.C. Built for jumping: the design of the frog muscular system. Science 1994, 263:
                         370–372.
   272   273   274   275   276   277   278   279   280   281   282