Nitrogen root-derived

The Michaelis-Menten equation is often employed in soil-water systems to describe kinetics of ion uptake by plant roots and microbial cells, as well as microbial degradation-transformation of organics (e.g., pesticides, industrial organics, nitrogen, sulfur, and natural organics) and oxidation or reduction of metals or metalloids. Derivation of the Michaelis-Menten equation(s) is demonstrated below. 

The absorption spectrum of Cp3Nd(NCCH3) in a single crystal form at liquid nitrogen temperatures showed a truncated crystal field splitting pattern could be derived. The parameters of an empirical Hamiltonian were fitted [41] with the energies of 41 levels with a root mean square deviation of 26 cm1. 

At the root of the instability of fluoroaUcylboron compounds is the availability of a vacant orbital on boron it will be seen that when boron is co-ordinately saturated, as in four-covalent boron derivatives (10.26A), or partially saturated by tt bonding with attached oxygen- or nitrogen-containing groups (10.26B), then the stability of perfluoro-alkylboron compounds increases (Figure 10.26). 

J The name azote provides the root az for nitrogen. k The element symbol derives K from the name kalium. 

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