Boeder model in the theory of Maxwell effect

1992 ◽  
Vol 61 (5) ◽  
pp. 2386-2389
Author(s):  
I. B. Aizenberg ◽  
L. D. �skin
Keyword(s):  
Maxwell Effect

The Maxwell effect in colloids

1936 ◽  
Vol 32 ◽  
pp. 307 ◽  
Author(s):  
A. M. Taylor
Keyword(s):  
Maxwell Effect

The Maxwell Effect in Liquids

Nature ◽  
1927 ◽  
Vol 120 (3029) ◽  
pp. 726-727 ◽  
Author(s):  
C. V. RAMAN ◽  
K. S. KRISHNAN
Keyword(s):  
Maxwell Effect

scholarly journals Comparison of the Overall Motion Correlation Times of Several Mammalian Serum Albumins in Dilute Solutions Determined on the Basis of Maxwell Effect and the Debye-Stokes-Einstein Equation.

2017 ◽  
Vol 40 (1) ◽  
pp. 1-10
Author(s):  
Karol Monkos
Keyword(s):  
Einstein Equation ◽  
Intrinsic Viscosity ◽  
Correlation Time ◽  
Dilute Solution ◽  
Serum Albumins ◽  
Solution Ph ◽  
Correlation Times ◽  
Principal Axes ◽  
The Times ◽  
Maxwell Effect

Abstract One of the rarely used ways of determining the overall motion correlation time of proteins is method based on the Maxwell effect. This effect consists in the appearance of a stimulated birefringence in liquids or solutions and induced by the mechanical force like shear stress in a streamline flow. To determine the overall motion correlation time for protein in dilute solution is sufficient to know the molecular mass and the ratio of the principal axes of protein, and an intrinsic viscosity. The intrinsic viscosity has been measured using an Ubbelohde-type capillary microviscometer immersed in a water-bath controlled thermostatically in the range from 5°C to 45°C for six mammalian albumins. To check the influence of solution pH on the overall motion correlation time the intrinsic viscosity value of the human serum albumin in solutions at the isoelectric point and beyond of it was measured. The thus obtained correlation times were compared with the times determined on the basis of the Debye-Stokes-Einstein equation.

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