Biological structures have evolved to fit their purpose and a discussion is given of the materials and engineering reasons for their success. The contrast is made between traditional engineering's extraction of maximum benefit from choice of materials and Nature's extraction of maximum benefit from structural shapes made of indifferent materials. The issue of integration and continuous optimization from the molecular level up to large structural components is highlighted. The relevance of such principles to engineering design is explored. Biological systems are also intelligent and an exciting possibility is that the engineering designer will be able to make use of materials and structures that are capable of preparing themselves for future events, not merely respond to immediate events. This, and ideas of integrating use with function, will require radical changes in design thought processes.
GordonJ. E.The science of structures and materials, 1988 (Scientific American Library, New York).
10.
ThompsonD'arcyOn growth and form, 1st edition, 1917 (Cambridge University Press).
11.
VincentJ. F. V.CurreyJ. D.The mechanical properties of biological materials. Symposium of Society of Experimental Biology, Vol. 34, 1980 (Cambridge University Press).
12.
WainwrightS. A.BiggsW. D.CurreyD.GoslineJ. M.Mechanical design in organisms, 1981 (Princeton University Press, N. J.) (1975).
13.
DowsonD.Christopher Hinton Lecture. Proc. Instn Mech. Engrs Part H, 1990, 205(H1), 1–10.
14.
BonfieldW.Metals and Materials, December 1991, p. 755.
15.
BonfieldW.J. Biomed. Engng, 1988, 10, 522.
16.
O'ConnorJ. J. In Strain measurement in biomechanics (Eds. MilesA. W.TannerE.), 1991 (Chapman and Hall, London).
DowsonD.FisherJ.JinZ.-M.AugerD. D.JobbinsB.Proc. Instn Mech. Engrs Part H, 1991, 205(H1), 59–68.
26.
BidenE.O'ConnorJ. J. In Knee ligaments: structure, function, injury and repair (Eds. DanielD. M.AkesonW. H.O'ConnorJ. J.), 1990 (Raven Press, New York).
27.
KastelinJ.BaerE.Deformation in tendon cartilage. In The mechanical properties of biological materials (Eds. VincentJ. F. V.CurreyJ. D.), 1980, pp. 397–435 (Cambridge University Press).
AtkinsA. G.MaiY.-W.Elastic and plastic fracture, 1988 (Ellis Horwood, Chichester).
48.
GordonJ. E.JeronimidisG.Phil. Trans. R. Soc., 1980, A294, 545.
49.
JeronimidisG.Wood, one of nature's challenging composites. In The mechanical properties of biological materials (Eds. VincentJ. F. V.CurreyJ. D.), 1980, pp. 169–182 (Cambridge University Press).
50.
WatkinsM.PhD dissertation, University of Reading1986.
VincentJ. P.Metals and Materials, January 1992, p. 13.
53.
BirmanV.Int. J. Mech. Sci., 1994, 36, 567–578.
54.
JeronimidisG.KaraolisN. M.MusgroveP. J.Power control of wind turbine blades through structural design. In Smart structures and materials (Eds. HaritosG.SrinivasanA. V.), 1991, Vol. 123, pp. 189–292 (American Society of Mechanical Engineers, New York).
WilkieI. C.Variable tensility in Echinoderm collagenous tissues. A review. Mar. Behavioural Physiol., 1984, 11, 1–34.
57.
KoboriT.KanayamaH.KamagatS.A new horizon in design philosophy of anti-seismic response control systems, Proceedings of Ninth World Conference on Earthquake engineering, Tokyo-Kyoto, 1988, paper SE11.
