Of late, since the improvement of computer performance is remarkable, numerical computation becomes a very useful adjunct.
With the improvement of computer power and numerical algorithms, computational fluid dynamics (CFD) has become a useful tool for studying the hydrodynamics in complex multiphase systems.
From the very beginning it has been recognized by professionals as a forum for the exchange and dissemination of topical research in the development, implementation, application and improvement of computer systems for business processes.
As the improvement of computer speed, mathematical programing first applied by Amit and Goldfard [9] has become the most popular approach which has been used for optimizing different models such as trip time [10], delay time [11], reliability [12], deviation from a preferred time table [13, 14], operation cost [15], and so on.
With the improvement of computer hardware and software, density functional theory (DFT) [4, 5] and molecular dynamics (MD) simulation methods in recent times have become fast and powerful tools to predict the corrosion inhibition efficiencies of inhibitor molecules [6, 7, 8, 9, 10, 11].
For Growth and Learning Perspective we considered staff continuous updating, improvement of computer infrastructure supporting informative flows, organisational resources as team-work, leadership, alignment to organisation strategy.
In a way analogous to Gordon Moore's famous law about the improvement of computers, both the price of sequencing DNA and the price of making it have plummeted over the past decade.
That rule of thumb since became known as Moore's Law and continues to drive the improvement of computers and other electronics such as the number of pixels in digital cameras and the size of computer memory.
There is a significant need for development and improvement of computer-aided detection or decision support systems in medicine, with an expected amplification in the future.
Related to this higher computational cost, we need to point out two limitations in this study, both of which can be solved in near future by the improvement of computers.
Significant improvements of computer facilities and computational fluid dynamics (CFD) software in recent years have enabled prediction and assessment of the pedestrian wind environment around buildings in the design stage.
