Abstract
The physical properties of all the materials are well known to be determined by their symmetry. The lower the symmetry, the richer the palette of material physical properties. On the other hand, the lower is the symmetry of a system, the more ordered it is. Certainly, living organic materials are highly ordered, and one may expect properties characteristic for low-symmetry materials, such as, for example, piezoelectric and pyroelectric effects. People began to be interested in this problem very long ago. Pasteur was probably the first to suggest over 100 years ago that biological systems have chiralic dissymmetric properties and that these properties are important for the functioning of the biological systems. Much later, researchers began to study piezolectric, pyroelectric, and ferroelectric properties of biological materials.
You may say anything you like but we all are made up of ferroelectrics B.T. Matthias
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References
Fukuda, E. and Yasuda, I. (1964) Piezoelectric effect in collagen, Jap. J. Appl. Phys. 3, 117–121.
Shamos, M.H. and Lavine, L.S. (1967) Piezoelectricity as a fundamental property of biological tissues, Nature 213, 267–269.
Williams, W.S. (1982) Piezoelectric effects in biological materials, Ferroelectrics 41, 225–246.
Lang, S. (1966) Pyroelectric effect in bone and tendon, Nature 212, 704–705.
Lang, S.B. and Athenstaedt, H. (1978) Anomalous pyroelectric behavior in theleaves of the palm-like plant, Ferroelectrics 17, 511–519.
Athenstaed, H. (1970) Permanent longitudinal electric polarization and pyroelectric behavior of collagenous structures and nervous tissue in man and other vertebrates, Nature 228, 830–834.
Anhenstaed, H. (1976) Pyroelectric sensors of organisms, Ferroelectrics 11, 365–369.
Anthenstaed, H. (1976) Pyroelectric properties of wheat, Ferroelectrics 14, 753-759.
Lang, S. (1981) Pyroelectricity: occurrence in biological material and possible physiological applications, Ferroelectrics 34, 3–9.
Lang, S.B. (1969) Thermal expansion coefficients and the primary and secondary pyroelectric coefficients of animal bone, Nature 224, 798–799.
Polonsky, J., Douzou, P., and Sadron, C. (1960) Mise en évidence de propriétés ferroélectriques dans DNA, C.R. Acad. Sci. 250, 3414–3416.
Stanford, A.L. and Lorey, R.A. (1968) Evidence of ferroelectricity in RNA, Nature 219, 1250–1251.
Leuchtag, H.R. (1988) A proposed physical explanation of the activation of sodium channels, Ferroelectrics 86, 105–113.
Tokimoto, T. and Shirane, K. (1993) Ferroelectric diffused electrical bilayer model for membrane excitation, Ferroelectrics 146, 73–80.
Gurskaya, G.V. (1968) The molecular structure of amino acids: determination by X-ray diffraction analysis, Consultant Bureau, New York.
Simpson, H.J. and Marsh, R.E. (1966) The crystal structure of L-alanine, Acta Cryst. 20, 550–555.
Derissen, J.L., Endeman, H.J., and Peerdeman, A.F. (1968) The crystal and molecular structure of L-aspartic acid, Acta Cryst. B24, 1349–1354.
Khavas, B. (1970) The unit cell and space group of L-methionine, L-β-phenylalanine, and DL-tyrosine, Acta Cryst. B26, 1919–1922.
Khavas, B. (1985) X-ray study of L-phenylalanine dimorph and D-tryptophane, Ind. J. Phys. 59A, 219–226.
Chaney, M.O. and Steinranf, L.K. (1974) The crystal and molecular structure of tetragonal L-cystine, Acta Cryst. B30, 711–716.
Maddin, J.J., McGandy, E.L., and Seeman, N.C. (1972) The crystal structure of the orthorhombic form of L-(+)Histidine, Acta Cryst. B28, 2377–2382.
Maddin, J.J., McGandy, E.L., and Seeman, N.C. (1972) The crystal structure of the monoclinic form of L-histidine, Acta Cryst. B28, 2382–2389.
Harding, M.M. and Long, H.A. (1968) The crystal structure of L-cysteine, Acta Cryst. B24, 1096–l102.
Kerr, K.A., Ashmore, J.P., and Koetzie, T.F. (1975) A neutron diffraction study of L-cysteine, Acta Cryst. B31, 2022–2026.
Torii, K. and Iitaka, Y. (1971) The crystal structure of L-isoleucine, Acta Cryst. B27, 2237–2246.
Khawas, B. (1971) X-ray study of L-arginine HCl, L-cysteine, DL-lysine, and DL-phenylalanine, Acta Cryst. B27, 1517–1520.
Benedetti, E., Pedone, C., and Sirigu, A. (1973) The crystal structure of DL-isoleucine and structural relation between racemic and optically active pairs in some aminoacids, Acta Cryst. B29, 730–733.
Harding, M.M. and Howieson, R.M.(1976) L-leucine, Acta Cryst. B32, 633–634.
Delfino, M. (1978) A comprehencive optical secod harmonic generation study of the non-centrosymmetric character of biological structures, Mol. Cryst.Liq. Cryst. 52, 271–284.
Vasilescu, D., Cornillon, R., and Mallet, G. (1970) Piezoelectric resonances in amino-acids, Nature 225, 635.
Fousek, J. (1991) Ferroelectricity: remarks on hystorical aspects and present trends, Ferroelectrics 113, 3–20.
Sworakowski, J. (1992) Ferroelectricity and related properties of molecular solids, Ferroelectrics 128, 295–306.
Silvestrova, I.M., Nabakhtiani, G.N., Kozin, V.B., Kuznetsov, V.A., and Pisarevsky, Y.V. (1992) Elastic, piezoelectric, and dielectric properties of LAP crystals, Kristallographia 37, 1535–1541.
Gladky, V.V. and Zholudev, I.S. (1965) Pyroelectric properties of some single crystals, Kristall ographia 10, 63–67.
Barlew, C., Spasov, V., and Teravitcharova, S. (1994) Pyro-and ferroelectric properties of nGly MeCl2 2H2O, Ferroelectrics 158, 157–162.
Pepinsky, R., Vedam, K., Hoshino, S., and Okaya, Y. (1958) Ferroelectricity in di-glycine nitrate, Phys.Rev. 111, 430–431.
Baran, J., Sledez, M., Jakubas, R., and Bator, G. (1997) Ferroelectric phase transition in deuterated glycinium phosphate, Phys. Rev. B51, 169–172.
Kehrer, A. and Weiss, A. (1990) The pyroelectric coefficient of Gly-L-Ala HBr H2O and Gly-L-Ala HI H2O, Ferroelectrics 106, 405–410.
Makita, Y. (1965) Ferroelectricity in TSCC, J. Phys. Soc. Jap. 20, 2073–2080.
Schaak, G. (1990) Betaine compounds, Ferroelectrics 104, 147–158.
Balashova, E.V., Lemanov, V.V., Albers, J., and Kloepperpieper, A. (1998) Ultrasonic study of betaine compounds, Ferroelectrics 208–209, 63–81.
Miglory, A., Maxton, P.M., Clogston, A.M., Zimgiebl, E., and Lowe, M. (1998) Anomalous Temperature dependence in the Raman spectra of L-alanine: evidence for dynamic localization, Phys. Rev. B38, 13464–13467.
Kwok, R.S., Maxton, P., and Miglory, A. (1990) Thermal conductivity of single crystal L-alanine, Sol. St. Commun. 74, 1193–1195.
Moreno, J.D., et al. (1997) Pressure induced phase transitions in monohydrate L-asparagine amino acid crystals, Sol. St. Commun. 103, 655–657.
Winkler, E., Etchegon, P., Feinstein, A., and Fainstein, C. (1998) Luminescence and resonant Raman scattering of colour centers in irradiated crystalline L-alanine, Phys. Rev. B57, 13477–13483.
Lemanov, V.V. and Popov, S.N. (1998) Unusual electromechanical effects in glycine, Fiz. Tverd. Tela 40, 1086–1089. (Phys. Sol. State 40, N 6.)
Lemanov, V.V. and Popov, S.N. (1998) Phonon echo in L-alanine, Fiz. Tverd. Tela 40, 2119–2120. (Phys.Sol.State 40, 1921–1922.)
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Lemanov, V.V. (2000). Piezo-, Pyro-, and Ferroelectricity in Biological Materials. In: Galassi, C., Dinescu, M., Uchino, K., Sayer, M. (eds) Piezoelectric Materials: Advances in Science, Technology and Applications. NATO Science Series, vol 76. Springer, Dordrecht. https://doi.org/10.1007/978-94-011-4094-2_1
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DOI: https://doi.org/10.1007/978-94-011-4094-2_1
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