Covering theoretical, experimental and computational techniques, this book provides the first atomistic study of surface diffusion across metal surfaces.
Much-needed update on experimental research into mesoscopic devices for graduate students and researchers in mesoscopic physics, nanoelectronics, and semiconductor nanostructures.
Summarizes levitation techniques for researchers in physics, physical chemistry and materials science, and professionals in aerospace and high-temperature materials processing.
A concise introduction to magnetism, magnetic materials and phenomena, and their contemporary applications and technologies for both students and researchers.
Covering theoretical, experimental and computational techniques, this book provides the first atomistic study of surface diffusion across metal surfaces.
Summarizes levitation techniques for researchers in physics, physical chemistry and materials science, and professionals in aerospace and high-temperature materials processing.
Textbook introducing engineers to quantum mechanics and nanostructures, covering the fundamentals and applications to nanoscale materials and nanodevices.
Much-needed update on experimental research into mesoscopic devices for graduate students and researchers in mesoscopic physics, nanoelectronics, and semiconductor nanostructures.
A comprehensive introduction to the rapidly developing field of quantum transport for graduate students, researchers and professionals working in nanoscience.
The first treatment of Bose–Einstein condensation at finite temperatures for researchers and graduate students in atomic, molecular and optical physics.
This graduate textbook describes the transport phenomena in systems of nanoscale dimensions for graduate students in physics, chemistry, and electrical engineering.
An introduction to solitons for graduate students and academic researchers in theoretical physics, particle physics, cosmology and condensed matter physics.
The dark universe contains matter and energy unidentifiable with current physical models, accounting for 95% of all the matter and energetic equivalent in the universe.
