Multi-Scale Computational Approaches

Nanotechnology is a rapidly emerging field which utilizes the manipulation of matter at the nanoscale to develop applications for a wide range of industries. As the technology advances, so does the need for more efficient, accurate and reliable computational methods to model and simulate nanoscale structures and processes. Multi-scale computational approaches have the ability to bridge the gap between the atomistic and mesoscopic scales, allowing for more realistic simulations of Nanobiotechnology and nanostructures. Multi-scale approaches are based on the assumption that the behavior of a system can be accurately predicted by modeling the interactions between the different components of the system at different scales. That is, the behavior of the system is a result of the interactions between the components at the atomic, molecular, and/or macroscopic levels. By utilizing a combination of computational techniques, such as quantum mechanics, molecular dynamics, or continuum mechanics, multi-scale approaches can capture the full range of behavior exhibited by Nanobiotechnology and nanostructures. Multi-scale approaches can be particularly useful in the development of new Nanobiotechnology. For instance, by combining quantum mechanics, molecular dynamics, and continuum mechanics, researchers can accurately simulate the properties of a new nanomaterial before it is even synthesized in the laboratory. This enables researchers to identify the most promising materials for a given application, and can significantly reduce the time and cost associated with the development process.