A simplified constitutive model based on the consideration of thermally activated dislocation motion is proposed.
The paper considers a computational model, based on the consideration of the hardening/softening level in local volumes, to assess the high-cycle fatigue life of materials.
A phenomenological model, based on the consideration of interfacial energy, volume expansion and lattice mismatch, has been developed to describe this interesting melting behavior.
A constitutive model based on micromechanical considerations is presented.
A model based on dimensional considerations is proposed to predict bubble size as a function of flow position.
With regard to the control design a mathematical model based on physical considerations is introduced where the essential nonlinearities of the system are taken into account.
By analyzing the convergence properties of this model based upon geometric considerations, we present additional insights into the dynamic mechanisms of the process of protein synthesis.
A new model based on thermodynamic considerations and on the nucleation kinetics data are proposed, which accounts for the undercooling increase including initial conditioning, atmosphere effects and undercooling saturation in a self-consistent manner.
In the present paper, we deliver a detailed theoretical model based on electrical considerations to study the impact of physical parameter of DSSC cell on the J V characteristic, performance and photovoltaic efficiency.
A predictive model based on free energy consideration is derived.
To obtain the reasonable fossil-fuel management schemes, multi-dimensional constraints are incorporated into the model based on a comprehensive consideration in terms of fuel supply and demand, quality and quantity, economic cost and environment protection, as well as their interactions.
