Computational Nanoscience

This book serves as a thorough resource on new developments in computational nanoscience, showcasing its applications and potential for researchers and students.

This comprehensive and up-to-date survey of new developments and applications in computational nanoscience is designed for theoreticians, researchers, and students alike. The field of nanoscience is one of the most exhilarating areas in modern physical science, integrating a variety of techniques that span multiple disciplines. It encompasses medicine, health, physics, engineering, and chemistry, providing a profound understanding of matter's behavior at the atomic and molecular levels. This understanding is pivotal for advancing future applications of nanotechnology.

Computational Nanoscience highlights the significant advancements in theoretical methods and computational techniques that have enabled modern computational nanoscience to achieve a new level of chemical accuracy. This discipline has evolved to not only follow experimental efforts but to lead and guide them, addressing contemporary challenges in computational science within the swiftly advancing field of nanotechnology. The book fulfills the demand for a thorough yet concise overview of new developments and applications, as presented by leading experts in the field.

The twelve chapters of Computational Nanoscience delve into various topics, including the concepts behind recent breakthroughs, the development of state-of-the-art simulation tools, and a wide array of new applications. It effectively demonstrates what computational nanoscience can accomplish and illustrates how readers can incorporate these insights into their own research and work. This makes it an essential resource for anyone interested in the cutting-edge advancements in this dynamic field.