Four parameters were tested on simple bacterial cultures: pH, bacterial density, exposure time and wavelength.
It should be noted that so far, these techniques have mostly been tested on simple and well-known theoretical functions.
This new algorithm has been tested on simple mechanical systems, and leads to a conservative envelope of the transfer functions.
The resulting simulation technique has been tested on simple examples of relevant integral equations, including models of potential step chronoamperometry and cyclic voltammetry.
The method is tested on some simple physical problems to gauge its effectiveness.
The approach is tested on a simple, but highly nonlinear model of a coal-fired power plant.
The model is tested on both simple and complex geometry through comparisons with the HEC-RAS model.
The method is tested on some simple functions to demonstrate the flexibility and computational effectiveness of the new approach.
The model is tested on a simple diffusion problem with two coupled components and is in excellent agreement with the results obtained through a finite difference method.
