Titlebook: Bioelectrochemistry; Hendrik Keyzer,Felix Gutmann Book 1980 Springer Science+Business Media New York 1980 Chloroplast.chemistry.electroche

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https://doi.org/10.1007/978-3-658-01236-6cal reaction proper affects the probability of such reaction. It is suggested that the percolation mode of electron transfer proposed for amorphous solids be applicable to biological systems and that such electron transfer not only imparts conductivity to otherwise non-conducting bio-compounds such

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https://doi.org/10.1007/978-3-658-01236-6sorder and coulombic correlation. Fluctuations are shown to be important in 1D and 2D systems, i.e., no phase transitions occur in 1D. Membranes should be examined in terms of bi- or multi-layers. Electronic superconductivity is discussed in terms of the 1D Little model and its biological implicatio

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prosperity

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?sthetisches Denken und Kulturmanagementable small particles. Rapidly dividing cells attract more than do the nonreplicating murine red blood cells or confluent (i.e., rarely dividing) murine “L” cells. Reproducing cells attracted many more highly polarizable BaTiO. particles than they did of much less polarizable BaSO. ones (dielectric c

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?sthetisches Denken und Kulturmanagement known that all cells contain solids (particles and membranes). It therefore seems unreasonable to limit oneself to solution processes. One ought to consider the possibility that some biological processes may occur in, or at, the surfaces of solids. Starting from the hypothesis that a biological rea

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https://doi.org/10.1007/978-3-531-90877-9modules embedded in a bimolecular matrix of lipids. In a bimolecular lipid membrane (BLM), substructural layers with different dielectric and/or conduction properties will produce a dispersion with frequency of the membrane capacitance and conductance at very low frequencies (0.01 – 100 Hz). Measure

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