The development of quantum biology during the last decade

References

• Arley, N. and Iversen, S. (1952) On the mechanism of experimental carcinogenesis. III. Further development of the hit theory of carcinogenesis. Acta path. et microbiol. Scandinav, 30, p. 21.
   Google Scholar
• Atwood, K. C. and Norman, A. (1949) On the interpretation of multi-hit survival curves. Proc. Nat. Acad. Sci, 35, p. 696.
   Google Scholar
• Barnes, R. B. and Czerny, M. (1932) Lasst sich ein Schroteffekt der Photonen mit dem Auge beobachten?. Z. Phys, 79, p. 436.
   Google Scholar
• Baumgardt, E. (1952) Sehmechanismus und Quantenstruktur des Lichts. Naturwiss, 39, p. 388.
   Google Scholar
• Blackwell, H. R. (1953) Studies of the form of visual threshold data. J. Optic. Soc. America, 43, p. 456.
   Google Scholar
• Brumberg, E. M. and Vavilov, S. I. (1933) Visuelle Messungen der statistischen Photonenschwankungen. Bull. Acad. Sci. URSS, 7, p. 919.
   Google Scholar
• Crozier, W. J. (1950) On the visibility of radiation at the human fovea. J. Gen. Physiol, 34, p. 87.
   Google Scholar
• Davis, M. and Pollard, E. (1952) The inactivation of dry penicillin by deuteron bombardment. Arch. Biochem. Biophys, 37, p. 112.
   Google Scholar
• Delbruck, M. (1949) A physicist looks at biology. Trans. Connecticut Acad. Sci, 38, p. 173.
   Google Scholar
• Ehrenberg, L. (1955) Studies on the mechanism of action of ionizing radiations in plant seeds. Svensk kem. Tidskr, 67, p. 207.
   Google Scholar
• Ehrenberg, L. and Nybom, N. (1954) Ion density and biological effectiveness of radiations. Acta agric. Scandinav, 4, p. 396.
   Google Scholar
• Eldjarn, L. and Pihl, A. (1956) On the mechanism of chemical protection against ionizing radiation. Radiobiology Symposium Cambridge Oliver & Boyd, Edinburgh
   Google Scholar
• Ephrussi-Taylor, H. and Latarjet, R. (1955) Inactivation, par les rayons X, d'un facteur transformant du pneumocoque. Biochim. biophys. acta, 16, p. 183.
   Google Scholar
• Faberge, A. C. (1950) Relation between the action of cold and of nitrogen in decreasing the frequency of chromosome aberrations. Genetics, 35, p. 663.
   Google Scholar
• Gray, L. H. (1954) Conditions which affect the biologic damage resulting from exposure to ionizing radiation. Acta radiol, 41, p. 63.
   Google Scholar
• Hecht, S. , Shlaer, S. and Pirenne, M. (1942) Energy, quanta and vision. J. Gen. Physiol, 25, p. 819.
   Google Scholar
• Hewitt, H. B. and Read, J. (1950) Search for an effect of oxygen on the direct X-ray inactivation of bacteriophage. Brit. J. Radiol, 23, p. 416.
   Google Scholar
• Holthusen, H. (1924) Die Wirkung der Rontgenstrahlen in biologischer Hinsicht. Strahlenther, 18, p. 241.
   Google Scholar
• Jordan, P. (1939) Zur Quantenbiologie. Biol. Zentralbl, 59, p. 1.
   Google Scholar
• Koyenuma, N. (1943) Beitrage zur Theorie der biologischen Strahlenwirkung. Z. Phys, 120, p. 185.
   Google Scholar
• Lea, D. E. (1946) Action of radiations on living cells, Univ. Press, Cambridge
   Google Scholar
• Marcovitch, H. (1954) A quantitative biological test sensitive to low doses of ionizing radiations. Nature, London, 174, p. 796.
   Google Scholar
• Peyrou, Ch. and Piatier, H. (1946) Emploi de methodes statistiques dans l'etude de la sensibilite de l'œil. Compt. rend. Acad. de sci, 223, p. 589.
   Google Scholar
• Pirenne, M. H. (1951) Quantum physics of vision: Theoretical discussions. Progr. in Biophys, 2, p. 193.
   Google Scholar
• Pollard, E. C. (1953) Primary ionization as a test of molecular organization. Advanc. biol. med. Phys, 3, p. 153.
   Google Scholar
• Pollard, E. C. , Guild, W. R. , Hutchinson, F. and Setlow, R. B. (1955) The direct action of ionizing radiation on enzymes and antigens. Progr. in Biophys, 5, p. 72.
   Google Scholar
• Powell, W. F. and Pollard, E. C. (1955) Radiation inactivation of enzymes inside and outside of intact cells. Radiation Res, 2, p. 109.
   Google Scholar
• Preer, J. R. (1948) The killer cytoplasmic factor kappa. The rate of reproduction, the number of particles per cell, and its size. Amer. Naturalist, 82, p. 35.
   Google Scholar
• Read, J. (1949) The lateral distribution of ions across the track of an ionizing particle. Brit. J. Radiol, 22, p. 366.
   Google Scholar
• Read, J. (1951) Lateral distribution of ions across the track of an ionizing particle. II. Further observations on the equilibrium distributions. Brit. J. Radiol, 24, p. 345.
   Google Scholar
• Von Sanden, K. (1949) Zur treffertheoretischen Deutung des Zusammenhangs zwischen Steilheit der Dosis-Effekt-Kurve und Ionisationsdichte. Ztschr. Naturforsch, 4, p. 257.
   Google Scholar
• Sonneborn, T. M. (1948) Genes, cytoplasm, and environment. Scient. Monthly, 67, p. 154.
   Google Scholar
• Svedberg, T. (1920) Uber Grosse und Empfindlichkeit der Korner in photographischen Emulsionen. Ztschr. wissensch. Photogr, 20, p. 36.
   Google Scholar
• Svedberg, T. (1922) Reducibility of the individual halide grains in a photographic emulsion. Phot. J, 62, p. 183.
   Google Scholar
• Thoday, J. and Read, J. (1947) Effect of oxygen on the frequency of chromosome aberrations produced by X-rays. Nature, London, 160, p. 608.
   Google Scholar
• Thoday, J. and Read, J. (1949) Effect of oxygen on the frequency of chromosome aberrations produced by α-rays. Nature, London, 163, p. 133.
   Google Scholar
• Timofeeff-Ressovsky, N. W. and Zimmer, K. G. (1947) Biophysik I. Das Trefferprinzip in der Biologie, S. Hirzel, Leipzig
   Google Scholar
• Van Der Velden, A. (1944) Over het aantal lichtquanta dat nodig is voor een lichtprikkel bij het menselijk oog (Dutch.). Physica, 11, p. 179.
   Google Scholar
• Watson, J. D. (1950) The properties of X-ray inactivated bacteriophage. I. Inactivation by direct effect. J. Bact, 60, p. 697.
   Google Scholar
• Webb, J. H. (1948) Absolute sensitivity measurements on single-grain-layer photographic plates for different wave-lengths. J. Optic. Soc. America, 38, p. 312.
   Google Scholar
• Zirkle, R. E. and Bloom, W. (1953) Irradiations of parts of individual cells. Science, 117, p. 487.
   Google Scholar