The main objective of the modelling work is, on the one hand, to increase the insight in dynamics and functioning of the complex CW system by using mechanistic or process based models that describe transformation and degradation processes in detail.
From an ecological perspective, life-history can be understood through the use of physiologically based models that describe how organisms acquire resources from food and subsequently allocate these to key biological processes, such as growth, maintenance, and reproduction [ 14].
We consider an agent-based model that describes a habitat which can be occupied by maximally N asexual individuals, i.e. it contains N spots that are either occupied by an individual or empty.
The continuum dislocation-based model that describes the size-dependent plasticity at the microscale by considering evolving fields of curved dislocations is enhanced by a refined treatment of short-range interactions between dislocations.
We aimed to develop a population-based model that describes the natural history of RCC and predicts the number of future cases of advanced RCC, so that it can be used in healthcare decision-making.
We have previously developed a PKPD-based model that describes the relationship between warfarin dose and the International Normalized Ratio (INR) response in adults [ 19, 20], and which takes into account variation in pharmacokinetics (PK) due to age and CYP2C9 genotype, and variation in pharmacodynamics (PD) due to VKORC1 genotype.
Recently Knowles et al. (2012) presented an herbivore-based model that describes and partially explains the disjunct, mosaic distribution of extant bald communities.
This paper explains the fundamental mechanisms that control the ductility of all RC members and describes a mechanics based model that can simulate these mechanisms.
In this paper, we propose a quaternion based spacecraft model that describes the nadir pointing spacecraft with momentum wheel under gravity gradient torque disturbance.
