Mathematical models which relate the growth rate of a microorganism to a single limiting substrate concentration have long been established. In recent years, it has become apparent that, under certain conditions, the growth rate of an organism may be simultaneously limited by two or more substrates. Mathematical models of double-substrate limitation fall into two categories: interactive and no interactive models. A discussion of both types of models is presented in both conceptual and mathematical terms. An analogous case of an enzyme which requires two different substrates to produce a single product is presented. This enzyme analog indicates that both types of double-substrate limitation models appear to be feasible under certain conditio...
Growth parameters of Pseudomonas aeruginosa were quantified based on steady-state concentrations, ut...
Intracellular cofactors--such as NADH, NAD, ATP, ADP, and P$\sb{\rm i}$--are important co-substrates...
A model of the chemostat involving two populations of microorganisms competing for two complementary...
Mathematical models which relate the growth rate of a microorganism to a single limiting substrate c...
A comprehensive optimal model has been developed to simulate microbial growth for simultaneous utili...
A comprehensive model for microbial growth in multiple substrate environment developed by Venkatesh ...
The use of the classic Henry-Michaelis-Menten (HMM) model (or simply, Michaelis-Menten model) to stu...
In their natural environment microorganisms encounter changes in substrate availability, involving e...
It is generally observed that the growth yields are greater under substrate-limited conditions than ...
The classical Monod model for bacterial growth in a chemostat, based on a Michaelis-Menten kinetic a...
A comprehensive moel is developed based on an optimal strategy describing varied microbial growth ph...
Mathematical models which utilize standard reaction kinetics to describe microbial growth are genera...
The availability of multiple carbon/energy sources, as is common in wastewater treatment plants, oft...
Mathematical models for microbial growth based on reaction kinetics are generally successful in pred...
The specific consumption rate of substrate, as well as the associated specific growth rate, is an es...
Growth parameters of Pseudomonas aeruginosa were quantified based on steady-state concentrations, ut...
Intracellular cofactors--such as NADH, NAD, ATP, ADP, and P$\sb{\rm i}$--are important co-substrates...
A model of the chemostat involving two populations of microorganisms competing for two complementary...
Mathematical models which relate the growth rate of a microorganism to a single limiting substrate c...
A comprehensive optimal model has been developed to simulate microbial growth for simultaneous utili...
A comprehensive model for microbial growth in multiple substrate environment developed by Venkatesh ...
The use of the classic Henry-Michaelis-Menten (HMM) model (or simply, Michaelis-Menten model) to stu...
In their natural environment microorganisms encounter changes in substrate availability, involving e...
It is generally observed that the growth yields are greater under substrate-limited conditions than ...
The classical Monod model for bacterial growth in a chemostat, based on a Michaelis-Menten kinetic a...
A comprehensive moel is developed based on an optimal strategy describing varied microbial growth ph...
Mathematical models which utilize standard reaction kinetics to describe microbial growth are genera...
The availability of multiple carbon/energy sources, as is common in wastewater treatment plants, oft...
Mathematical models for microbial growth based on reaction kinetics are generally successful in pred...
The specific consumption rate of substrate, as well as the associated specific growth rate, is an es...
Growth parameters of Pseudomonas aeruginosa were quantified based on steady-state concentrations, ut...
Intracellular cofactors--such as NADH, NAD, ATP, ADP, and P$\sb{\rm i}$--are important co-substrates...
A model of the chemostat involving two populations of microorganisms competing for two complementary...