Physical Principles and Techniques of Protein ChemistryPhysical Principles and Techniques of Protein Chemistry Part C ... |
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Page 291
6 Dielectric Properties of Proteins 1 . Dielectric Relaxation SHIRO TAKASHIMA
291 294 295 . · · 295 . · · . · · 295 296 · · 196 298 301 304 Glossary of Symbols . . .
. . . . . . . . I . Introduction . . . . . . . . . . . . II . Dielectrics in a Static Field . . . A . Electric
...
6 Dielectric Properties of Proteins 1 . Dielectric Relaxation SHIRO TAKASHIMA
291 294 295 . · · 295 . · · . · · 295 296 · · 196 298 301 304 Glossary of Symbols . . .
. . . . . . . . I . Introduction . . . . . . . . . . . . II . Dielectrics in a Static Field . . . A . Electric
...
Page 303
Separating the real and imaginary parts and rearranging , we obtain ( 42 ) WT f "
= ( co – end ) 1 * " w273 ( 43 ) where eo and to are the dielectric constants at very
low and very high frequencies , respectively . The changes in é and as a ...
Separating the real and imaginary parts and rearranging , we obtain ( 42 ) WT f "
= ( co – end ) 1 * " w273 ( 43 ) where eo and to are the dielectric constants at very
low and very high frequencies , respectively . The changes in é and as a ...
Page 313
B . THEORETICAL INTERPRETATION OF DIELECTRIC RELAXATION OF
PROTEINS Dielectric dispersion is characterized by the dielectric increment , the
dielectric relaxation , and its distribution . As an example , the dielectric
dispersion of ...
B . THEORETICAL INTERPRETATION OF DIELECTRIC RELAXATION OF
PROTEINS Dielectric dispersion is characterized by the dielectric increment , the
dielectric relaxation , and its distribution . As an example , the dielectric
dispersion of ...
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Contents
The Enhancement of Contrast | 21 |
The Preservation of Specimens | 35 |
Examples of the Application of Electron Microscopy to the Study | 48 |
Copyright | |
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absorbance absorption acid appears applied atoms axis binding birefringence boundary buffer calculated cell charge Chem chromophores complex concentration constant containing contrast corrected corresponding curve decrease dependence determined dielectric difference diffusion dipole direction discussed distribution effect electric electric field electron electrophoresis emission energy equation equilibrium example excitation experimental experiments factor fluorescence fraction frequency function given groups Herskovits important increase indicates intensity interactions ionic ions length light limited macromolecules measured method mobility molecular molecules observed obtained occurs optical orientation particles patterns peaks perturbation phase phenolic polarization position possible preparation present produced protein quantum range ratio reaction reference relative relaxation respectively rotation sample separation serum albumin shift shown single solution solvent specimen spectra spectrum strength structure studies technique temperature theory tion transfer transition tryptophan unit usually volume wavelength yield zone