The phrase "as a substrate pool" is correct and usable in written English.
It can be used in scientific or technical contexts, particularly in discussions about biochemistry, microbiology, or ecology, where it refers to a collection of substrates available for use by organisms or processes.
Example: "The microorganisms in the soil utilize organic matter as a substrate pool for their metabolic activities."
Alternatives: "as a source of substrates" or "as a reservoir of substrates".
Fluxes are calculated as outputs O from a substrate pool, using a mechanistic equation, usually the Michaelis Menten equation or something similar for bisubstrate reactions (Thornley and France, 2007, pp. 107 109, 113 114).
The use of a biocompatible water-immiscible organic phase as a substrate and product pool has been acknowledged as an effective tool to overcome the low volumetric productivity of aqueous bioconversion systems involving hydrophobic compounds.
The relevant equations and parameters for this biochemical reaction adapted to a single substrate pool are shown in Table 6.
The biochemical characterization underlined the substrate specificity of OcDH since next to L-arginine only L-cysteine and L-alanine can be used as a substrate for OcDH from the pool of all natural amino acid tested.
For a single substrate (x) single product (y) reaction, fluxes are calculated and designated as outputs (O x _ y ) from substrate pool x towards a product pool y with units of mol x per litre per day.
A relatively well-characterized substrate pool arises from misfolding of nascent chains that have been properly translated.
An intermediate defined as a distinct topoisomer not present in the initial substrate pool that accumulates and then proceeds to product over time.
With a share of 1.0 to 1.6 kg P/Mg of total solid (according to the results of previous investigations), E. nuttallii has a potential as a phosphorus pool, being suitable as a substrate for the extraction of P resources by means of regular harvesting and anaerobic digestion [14].
The FBrAtio approach is different from METAFoR in that it considers how a metabolite pool is distributed as a substrate among competing enzymes.
In order to expand the substrate pool of NRPSs, we developed a method based on yeast cell surface display to engineer the substrate specificities of the A-domains.
