Chloroplasts, quantum conversion

Chloropentammine Ir (HI) complex, incomplete Ir (III) autoreduction, 39 151-152 Chloroplasts, quantum conversion in, 14 1 1 -Chloroprop-2-ene thermal decomposition, 41 80 Chlorpromazine, reactivity with EDA complexes, 20 333, 336 CH O, 32 374-375 CH3OH, oxidation, 38 21-23 Cholestenone, hydrogenation, 25 57, 58 Cholesterol, biosynthesis of, 25 382 Cholinesterases, stracture of active surface, 10 130... 

Quantum-chemical cluster models, 34 131-202 computer programs, 34 134 methods, 34 135-138 for chemisorption, 34 135 the local approach, 34 132 molecular orbital methods, 34 135 for surface structures, 34 135 valence bond method, 34 135 Quantum chemistry, heat of chemisorption determination, 37 151-154 Quantum conversion, in chloroplasts, 14 1 Quantum mechanical simulations bond activation, 42 2, 84—107 Quasi-elastic neutron scattering benzene... 

How does the concept of organic semiconduction fit into our notions of what we know about the processes going on in the green plant A number of similar physical measurements have been made on the chloroplasts themselves, and some of the measurements can be interpreted in language which is very similar to that used for the phthalo-cyanine model systems. The work on the biological system itself, designed with this type of quantum conversion in mind, has just begun. 

This author will now explain what he believes, at the moment, is the primary quantum conversion process that goes on in the layer of chlorophyll (and other pigments) in the lattice. We know something about the chemical composition of the chloroplast itself, i.e., it is a lipoprotein together with pigments. There are a number of specific molecules present in the chloroplast, for example, chlorophyll and... 

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