Synopsis
Solid-state laser and luminescent materials activated by rare-earth or transition metals ions are widely used for solid-state lasers, luminescent lamps, flat displays, optical fibre communication systems, and other photonic devices. The unique solid-state electronic properties enable the activators in solids to emit photons efficiently in visible and IR regions. The rapid advances in both materials science and optoelectronics, particularly, the development of new methods of material synthesis and device fabrication, have been stimulating the growing interests in the deep insights of spectroscopic properties of solid-state laser and luminescent materials. This book brings together essential and practical knowledge of spectroscopic physics. This includes, atomic spectroscopy, mathematical theory, rare earth ions in materials, light emission and absorption, spectral properties, non-radiative transitions and energy migration.
Preface; Elements of Atomic Spectroscopy; Basic Mathematical Theory of Symmetry; Rare earth ions in materials; Light Emission and Absorption; Lattice Vibration and the Spectral Properties of Active Ions; Energy Levels and Spectroscopic Properties of the Iron Group Ions; Non-Radiative Transition; Energy Transfer and Migration; Spectral Properties of Laser Glasses; Spectroscopic Properties of Rare Earths in Nanocrystals
Tabal of Contents
Ch. 1 |
|
Elements of atomic spectroscopy |
|
1 |
Ch. 2 |
|
Basic mathematical theory of symmetry |
|
25 |
Ch. 3 |
|
Rare earth ions in materials |
|
53 |
Ch. 4 |
|
Light emission and absorption |
|
75 |
Ch. 5 |
|
Lattice vibration and the spectral properties of active ions |
|
113 |
Ch. 6 |
|
Energy levels and spectroscopic properties of the iron group ions |
|
149 |
Ch. 7 |
|
Non-radiative transition |
|
179 |
Ch. 8 |
|
Energy transfer and migration |
|
209 |
Ch. 9 |
|
Spectral properties of laser glasses |
|
231 |
Ch. 10 |
|
Spectroscopic properties of rare earths in nanocrystals |
|
275 |