Better understanding, design and operation of engineering processes demand visualisation of the material flows within them under realistic conditions.
The criteria subsequently used for design and optimization of engineering processes largely depend on which engineering goals are chosen.
Both of these questions lie at the crux of understanding the engineering process itself, and progress on these fronts can offer huge leverage in our ability to design, make and maintain increasingly complex systems in the future.
How has your understanding of engineering and the design process changed over that span of twenty-plus years?
The results can lead to a better understanding of a number of coastal engineering processes, including random ocean waves and the interactions between wave groups and marine structures.
Microbiology, food science, and an understanding of engineering principles come into play here.
These simulations run with an understanding of structures and the requirements of different engineering processes.
Thus, our present understanding of mollusk shell biomineralization is limited, and this in turn prevents us from understanding the shell engineering process.
However, an accurate and detailed full-field understanding of relevant engineering flow processes is needed to optimize performance and/or test computational models.
Furthermore, these modern medical imaging techniques offer the potential of allowing for a more rapid design and development cycle, not only saving time and cost but providing a more detailed understanding of relevant engineering flow processes.
