Glass, Volume 1 |
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Page 10
It was assumed that electrons which participate in strong chemical bonds would
require the higher energy (or shorter wavelengths) for excitation. For the simple
glass- forming oxides, Stevels predicted an edge shift to shorter wavelengths in ...
It was assumed that electrons which participate in strong chemical bonds would
require the higher energy (or shorter wavelengths) for excitation. For the simple
glass- forming oxides, Stevels predicted an edge shift to shorter wavelengths in ...
Page 33
This weakening of the network by the introduction of M-O bonds should produce
an edge shift to longer wavelengths similar to the silicates since NBO ions will be
formed immediately upon addition of modifiers. The ultraviolet absorption of ...
This weakening of the network by the introduction of M-O bonds should produce
an edge shift to longer wavelengths similar to the silicates since NBO ions will be
formed immediately upon addition of modifiers. The ultraviolet absorption of ...
Page 107
Using the Mie Theory as applied to colloids in the alkali halides by Doyle (1960),
he calculated that the wavelength of maximum absorption of a spherical silver
particle in silver halide should be about 4800 A. If the particle is not spherical, the
...
Using the Mie Theory as applied to colloids in the alkali halides by Doyle (1960),
he calculated that the wavelength of maximum absorption of a spherical silver
particle in silver halide should be about 4800 A. If the particle is not spherical, the
...
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Contents
Optical Absorption of Glasses | 7 |
Solid Solution Strengthening of FaceCentered Cubic Alloys | 8 |
Visible Absorption | 35 |
Copyright | |
46 other sections not shown
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Common terms and phrases
absorption band Absorption spectrum alkali anisotropic annealing Araujo atoms binary birefringence bleaching bond borate glasses boron borosilicate glass Bray Brillouin Brillouin scattering calculations Ceram chalcogenide glasses Chem chloride coefficient colloid color composition concentration fluctuations coordination crystal crystalline cupric ion darkening density fluctuations dielectric constant dielectric relaxation diffusion distribution effect electron energy equilibrium experimental fade rate frequency frozen-in strain function glass systems glasses containing Griscom heat treatment increase indicated intensity irradiated Landau-Placzek ratio light scattering magnetic materials measured mole Mossbauer negative birefringence observed octahedral octahedral symmetry optical oxide glasses oxygen paramagnetic parameters particles phase separation phonons phosphate glasses photochromic photochromic glasses Phys polarization positive birefringence Raman Rayleigh relaxation resonance sample Schroeder shift shown in Fig silicate glasses silver halide sodium Solids spectra spectrum spin-lattice relaxation spinodal stretching structural studied Takamori Taylor temperature thermal tion Tomozawa transition trapped ultraviolet unpublished results vibrational viscosity wavelengths
Bibliographic information
| Title | Glass, Volume 1 Treatise on Materials Science and Technology Glass, R. H. Doremus Treatise on Materials Science Vol 12 Glass, R. H. Doremus |
| Editors | Minoru Tomozawa, R. H. Doremus |
| Contributor | Minoru Tomozawa |
| Edition | illustrated |
| Publisher | Academic Press, 1977 |
| Original from | the University of Michigan |
| Digitized | 29 Nov 2007 |
| ISBN | 0123418127, 9780123418128 |
| Length | 349 pages |
| Subjects | › Glass Technology & Engineering / General Technology & Engineering / Materials Science |
| Export Citation | BiBTeX EndNote RefMan |