Contention in the various SMP architectures tested is shown to compound these two hardware limitations.
Motoneurons appeared to adhere and spread on all the architectures tested and preferentially on PSS ending films.
The two architectures tested (PNN, MLP) were developed and trained to identify or leave unassigned a number of IR patterns.
Porous constructs had lower nonlinear elastic properties, as did constructs of both architectures tested under simulated physiological conditions (wetted at 37 °C).
In particular, the AWF SR before compression is the best method among the architectures tested.
Previous theoretical work on motor pattern generation in turtles [5, 10] focused on the generation of two other turtle motor rhythms, caudal scratch and forward swim, from a variety of network architectures, testing their compatibility with several observed experimental characteristics.
The paper also discusses the architecture test plan.
That strategy includes a testing architecture, testing requirements, test cases, and coverage analysis.
The details about the system architecture, test results and networks deployment will be described in this contribution.
