What is What in the Nanoworld: A Handbook on Nanoscience and Nanotechnology
The short form of information taken from textbooks, special encyclopedias, recent original books and papers provides fast support in understanding "old" and new terms of nanoscience and technology widely used in scientific literature on recent developments. Such support is indeed important when one reads a scientific paper presenting new results in nanoscience. A representative collection of fundamental terms and definitions from quantum physics, and quantum chemistry, special mathematics, organic and inorganic chemistry, solid state physics, material science and technology accompanies recommended second sources (books, reviews, websites) for an extended study of a subject.
Each entry interprets the term or definition under consideration and briefly presents main features of the phenomena behind it. Additional information in the form of notes ("First described in: ", "Recognition: ", "More details in: ") supplements entries and gives a historical retrospective of the subject with reference to further sources.
Ideal for answering questions related to unknown terms and definitions of undergraduate and Ph.D. students studying the physics of low-dimensional structures, nanoelectronics, nanotechnology.
The handbook provides fast support, when one likes to know or to remind the essence of a scientific term, especially when it contains a personal name in its title, like in terms "Anderson localization", "Aharonov-Bohm effect", "Bose-Einstein condensate", e.t.c
More than 1000 entries, from a few sentences to a page in length.
Sources of Information.
Fundamental Constants Used in Formulas.
A: From Abbe’s principle to Azbel’–Kaner Cyclotron Resonance.
B: From B92 Protocol to Burstein–Moss Shift.
C: From Caldeira–Leggett Model to Cyclotron Resonance.
D: From D’Alambert Equation to Dynamics.
E: From (e,2e) Reaction to Eyring Equation.
F: From Fabry–Pérot Resonator to FWHM (Full Width at Half Maximum).
G: From Galvanoluminescence to Gyromagnetic Frequency.
H: From Habit Plane to Hyperelastic Scattering.
I: From Image Force to Isotropy (of Matter).
J: From Jahn–Teller Effect to Joule’s Law of Electric Heating.
K: From Kane Model to Kuhn–Thomas–Reiche Sum Rule.
L: From Lagrange Equation of Motion to Lyman Series.
M: From Macroscopic Long-range Quantum Interference to Multiquantum Well.
N: From NAA (Neutron Activation Analysis) to Nyquist–Shannon Sampling Theorem.
O: From Octet Rule to Oxide.
P: From Paraffins to Pyrolysis.
Q: From Q-control to Qubit.
R: From Rabi Flopping to Rydberg Gas.
S: From Saha Equation to Symmetry Group.
T: From Talbot’s Law to Type II Superconductors.
U: From Ultraviolet Photoelectron Spectroscopy (UPS) to Urbach Rule.
V: From Vacancy to von Neumann Machine.
W: From Waidner–Burgess Standard to Wyckoff Notation.
X: From XPS (X-ray Photoelectron Spectroscopy) to XRD (X-ray Diffraction).
Y: From Young’s Modulus to Yukawa Potential.
Z: From Zeeman Effect to Zone Law of Weiss.
A: Main Properties of Intrinsic (or Lightly Doped) Semiconductors.
Stefano Ossicini is Full Professor or general physics at the Faculty of Engineering II of the University of Modena and Reggio Emilia (Italy). He also works as a researcher within the National Institute for the Physics of Matter (INFM) at the INFM National Center S3 "nanoStructures biosystems at Surfaces". He graduated in physics in 1976 at the University of Rome. From 1978 to 1982 he was action as post-doc and assistant at the department of Theoretical Physics of the Free University in Berlin (Germany) and from 1982 to 1984 as researcher at the University of Calabria (Italy). 1984 he went to the university of Modena and Reggio Emilia (Italy).
His research activity has mainly focused on the theory of low-dimensional systems. In recent years the central topic of his research has been the investigation of the structural, electronic and optical properties of semiconductor nanostructures.
"... a useful and readable resource, especially for undergraduate students and those elements in the general public interested in nanotechnology."
American Reference Books Annual
"...a useful handbook for undergraduate and PhD students as well as for teachers and researchers interested in nanoscience and nanotechnology from the physical/solid-state viewpoint. But is is also useful to chemists who are trying to move towards broader horizons."
"The book is very useful to both workers in the field and those who are interested in understanding the term and expression used in greater detail and the book will make a valuable addition to any bookshelf of the interested reader. It will be of use to university teachers, managers and media professionals dealing with nanoscience and nanotechnology."
Journal of Material Technology
"...useful to advanced graduate students beginning research projects, or to scientists and engineers reaching outside the bounds of their disciplines for work in nanotechnology."
"Borisenko and Ossicini, both professors of physics, have filled a gap in nanoscience by writing this book. Overall, it promises to be a valuable source of information for scientists, researchers and research students who are dealing with materials and nanotechnology."