Simon, J. & Klotz, M. G. Diversity and evolution of bioenergetic systems involved in microbial nitrogen compound transformations.
Soil nitrogen (N) enrichment associated with decomposing animals has been documented, but to date an integrated systems-level understanding of the fate and rates of N compound transformations is lacking.
The development of a new set of biological (activated sludge, anaerobic digestion), physico-chemical (aqueous phase, precipitation, mass transfer) process models and model interfaces (between water and sludge line) were required to describe the required tri-phasic (gas, liquid, solid) compound transformations and the close interlinks between the P and the sulfur (S) and iron (Fe) cycles.
The above results did show that the urea/metal ratio significantly effect on the metal compounds transformation process during the combustion.
It is possible that the difference between sulfide and sulfate ∆33S values vs. the difference between sulfide and sulfate δ34S values provides a diagnostic test for biogeochemical pathways of sulfur compounds transformation [39 42, 48, 63].
Phosphate compounds transformations are involved in cellular energetic, and the direction of many biochemical processes in microorganisms is strongly dependent on the presence of phosphates (Dawes 1986; Kulaev 1985).
For each compound-transformation pair (q, t e ), this leads to a posterior probability p e t, q of q being a substrate for t e (note that if q does not contain the RN-pattern, no probability can be calculated).
In present study, it is very difficult to assess the relative importance of direct ozone-mediated transformations, and thereby to draw a general conclusion about each compound and transformation during ozonation in a single matrix with varying OH· scavenging capacities, under a certain pH condition.
Our previously developed multifunctional compounds inhibited transformation of monomers into fibrils.
