Sentence examples for computational fabric from inspiring English sources

From one perspective, they are simply faster data links, but through the looking glass of the distributed computing idea they represent a visible manifestation of the construction of a vast computational fabric that will stretch around the globe.

Even as we as a species generate more data points than ever before, Moore's Law and its corollaries (such as Kryder's Law of hard disks) are creating a computational fabric which enables that data to be processed more cost-effectively than ever before.

With regard to the question whether functional programming languages are at all the right tool for the implementation of CMQ, we share the opinion stated in [29] that it is best to start with a programming language "whose computational fabric is by-default parallel" and that in the future "parallel programming will increasingly mean functional programming".

This paper presents the first fully programmable digital cellular design for nanodevice-based computational fabrics.

The quantum-dot cellular automata have emerged as one of the potential computational fabrics for the emerging nanocomputing systems due to their ultra-high speed and integration density.

A mathematically sound computational framework is presented for the determination of a representative volume element (RVE) of plain weave fabric composites with reinforcement imperfections.

Recently Moreno and Smedby (2014) used a novel approach to compute volume-based fabric tensors from computational fluid dynamics (CFD) simulations.

However, with the current focus on a fabric's computational and data collection capacity, the potential exists to disregard the importance of a costume's theatrical effect in the quest to acquire big data.

With this growth comes the possibility to enact experimental methodologies in connection with the sensing and computational nature of intelligent fabrics and demonstrate the extent to which a performance can be made and researched through fashion.

The rest of this paper is organized as follows: after describing the background and examining some of the existing reconfigurable architectures in Section 2, the SmartCell architecture is detailed in Section 3, including the designs of computational units, layered interconnection fabrics, and control/configuration schemes.

The material model was employed in the computational simulation of ballistic penetration of woven aramid fabrics.