The paper deals with an original approach to the definition of the complexity of the gas-turbine engines manufacturing, which is a multivariate and streamlined procedure based on a model for phased complexity calculation.
These findings are of interest and value to researchers and engineers working on phase equilibrium calculations and/or developing thermodynamic models for phase behaviour.
By being models for phase 2 mechanisms, however, most human surrogate models mimic sensory symptoms that may occur in both neuropathic and nociceptive pain.
His scientific interests mainly focus on the analysis of nonlinear evolutionary partial differential equations, and, in particular, mathematical models for phase transitions, damaging, thermomechanics and complex fluids.
We employ different models for phase and amplitude interpolation and simplify each formulation.
To use the model for phasing, we combine the HMMs for all pairs of individuals into a Bayesian network.
The aimed properties of the interpolation functions used in quantitative phase-field models for two-phase systems do not extend to multi-phase systems.
Here we present a biophysical spiking model for phase precession in hippocampal CA1 which focuses on the interaction between place cells and local inhibitory interneurons.
With the new information obtained, a two-step model for phase transition was proposed.
A general kinetic model for phase-transfer catalyzed reactions involving two liquid phases and a homogeneous catalyst has been developed.
