Methodology of biogeochemical cycling simulation for biosphere mapping

We will consider this scheme in details. Each system will be described as a combination of biogeochemical food webs and relationships between them. 

System 1 soil-forming rock (I) waters (II) atmosphere (III) soil (IV). This system would not been active without the living matter. 

System 6 soil-soil solution, air (IV) atmospheric air (III, 27) soil animals (VI) biological reactions of organisms, metabolism, exudes, including microbial exudes (VI) into soils (VI IV) into waters (II, 4b) into air as aerosols (III, 27). This system is very important for biogeochemical mapping but until now it has not been understood quantitatively. 

System 10 soil (IV) plants (VIII) their biological reactions, endemic diseases (VIII) atmospheric air, aerosols (III, 28). During consideration of System 7-9-10, we have discussed the influence of the lower and upper limits of concentrations on the plant metabolisms, including the endemic disease. The study of link (VIII) should start with the correct selection of characteristic plant species. The following steps should include the different research levels, from floristic description up to biochemical metabolism. 

System 13 soil-plant cycle soil-forming geological rocks (I) soil (IV) soil living matter (community of soil organisms) (V, VI, VII) aerosols, atmosphere air (12a, III) plants (VIII) their biological reactions, endemic diseases (VIII). In the complex system 13, the inner relationships and biochemical and biogeochemical mechanisms are shown for natural and agroecosystems. The system 11 and link IX show the ways for interrelation of system 13 with terrestrial animals. 

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