glucose, beef extract and inoculum density using Central Composite Design.
The inoculum density was found to be an insignificant variable.
Both inoculum density and conditioned medium have positive, synergistic effects on biomass production.
The statistical model was obtained by central composite design (CCD) using three variables (cane-molasses, urea and inoculum density).
The optimum variables that supported maximum enzyme titre were 8% cane molasses, 0.4% urea and 2% inoculum density.
A correlation between inoculum density, light output, and ribosomal contents was found for P. putida cells colonizing the root system of barley seedlings grown under sterile conditions.
We determine that increasing phage inoculum density can undesirably increase the peak density of a mutant bacterial class by limiting the in situ production of mutant phage variants.
For safety reasons, Mycobacterium smegmatis was first used to calibrate several parameters, such as inoculum density, atmospheric conditions (i.e. hygrometry) and particle size distribution.
Using Plackett Burman design, cane molasses, urea and inoculum density were identified as significant factors and these factors were subsequently optimized using a central composite design.
Root rot severity increased and emergence, plant height and seed yield decreased with increased inoculum density of both R. solani and F. avenaceum.
Expression of disease symptoms increased with increasing inoculum density for seedlings of P. serotina with each Pythium spp. having a similar effect on this species.
