Operationally, at each layer, it consists of a peer-to-peer architecture of modules that, by interacting with each other, provide a global view of the resource availability in a large, dynamic and heterogeneous distributed environment.
This architecture of modules appears to be shared by a large range of animal species and may even apply to the wormlike creature on the basis of the evolutionary divide between protostomes and deuterostomes, the two largest evolutionary streams of bilateral animals with a centralized nervous system.
In component-dominant dynamics, behavior is the product of a rigidly delineated architecture of modules, each with pre-determined functions; in interaction-dominant dynamics, on the other hand, coordinated processes alter one another's dynamics, with complex interactions extending to the body's periphery and, sometimes, beyond.
The architecture of the module interface is flexible enough that it can easily allow the future addition of new modules.
The architecture of this module consists of three functional components.
In this article we describe the architecture of the Module Controller Chip for the ATLAS Pixel Detector.
An analytic framework was devised to code knowledge types, levels of cognitive demand, levels of interaction, and sensory details in the learning architecture of each module.
The architecture of this module is similar to the backward and forward perspective ME technique presented in Section 4.2.
Now some of these modules are used to accomplish card read/write procedures and therefore internal architecture of those modules are again implemented based on FSM format for the realization of above procedures.
Another explanation is that expression in testis does not require a complex architecture of regulatory modules (Sassone-Corsi, 2002; Kleene, 2005; Kaessmann, 2010), so that fewer substitutions are required to obtain a functional regulatory module for expressing a novel gene in testis compared to other tissues.
