In this paper, a maximum likelihood estimation for distributed parameter models of large flexible structures has been formulated.
Solidification morphology directly impacts the mechanical properties of materials; hence many models of the morphological evolution of dendritic structures have been formulated.
The reactor structure design has been formulated, where reactor vessel sizes are 4200 mm (ID) × 19,750 mm (H), the guard vessel is a closed type, the upper structure is made of chimneys, and the core support structure is hung up.
The correlation among synthesis conditions, structure, and catalysis has been formulated based on the characterization and experimental results.
In order to support the targetted design and manufacturing of folded concrete (oricrete) structures numerical model has been formulated as an optimization framework with several types of optimality conditions and equality constraints.
So, we believe that this is the first time that a predator-prey model with sex-structure and time delay has been formulated and analyzed.
Secondly, the view of the energy landscape as consisting of a 'folding funnel' with the native structure at the bottom model has been formulated in the free-energy framework [1], [2], in which temperature is an important determination of the shape of the energy landscape of a protein.
This framework has been formulated in various documents on performance-based design of bridge and building structures (ATC 1996; FEMA 1997).
In the proposed work the model has been formulated for discretized doped HEMT, where the conventional uniformly doped, pulsed doped and delta doped structure are the special cases.
