Calculation on a Corresponding States Basis of the Volume Change on Mixing Simple Liquids

1967 ◽  
Vol 47 (7) ◽  
pp. 2449-2454 ◽  
Author(s):  
W. B. Streett ◽  
L. A. K. Staveley
Keyword(s):  
Volume Change ◽  
Corresponding States ◽  
Simple Liquids

On the principle of corresponding states for the viscosity of simple liquids

Physica ◽  
1967 ◽  
Vol 33 (3) ◽  
pp. 547-557 ◽  
Author(s):  
J.P. Boon ◽  
J.C. Legros ◽  
G. Thomaes
Keyword(s):  
Corresponding States ◽  
Simple Liquids

A Corresponding States Treatment of the Speed of Sound in Simple Liquids

1960 ◽  
Vol 13 (3) ◽  
pp. 325 ◽  
Author(s):  
SD Hamann
Keyword(s):  
Experimental Data ◽  
Speed Of Sound ◽  
Corresponding States ◽  
Simple Theory ◽  
Absolute Zero ◽  
The Other ◽  
Intermolecular Potential ◽  
Positive Deviation ◽  
Simple Liquids

It is shown that the speed of sound in the simple liquids A, N2, O2, CH4 conforms to the principle of corresponding states as formulated by de Boer in molecular units. The lighter liquids H2 and He show negative deviations which are proportional to their quanta1 parameters Λ*. CCl4 shows a positive deviation which is most likely due to a difference in the form of its intermolecular potential from that of the other liquids. A simple theory is presented for the speed of sound in a hypothetical liquid at absolute zero. The calculated value is consistent with the experimental data at finite temperatures.

Artifacts caused by dehydration and epoxy embedding in TEM

1991 ◽  
Vol 49 ◽  
pp. 338-339
Author(s):  
Hilton H. Mollenhauer
Keyword(s):  
Electron Microscopy ◽  
Electron Beam ◽  
Volume Change ◽  
Tissue Damage ◽  
Beam Specimen ◽  
Chemical Fixation ◽  
Resin Impregnation ◽  
Storage Vesicles ◽  
A Cell ◽  
Tissue Shrinkage

Various means have been devised to preserve biological specimens for electron microscopy, the most common being chemical fixation followed by dehydration and resin impregnation. It is intuitive, and has been amply demonstrated, that these manipulations lead to aberrations of many tissue elements. This report deals with three parts of this problem: specimen dehydration, epoxy embedding resins, and electron beam-specimen interactions. However, because of limited space, only a few points can be summarized.Dehydration: Tissue damage, or at least some molecular transitions within the tissue, must occur during passage of a cell or tissue to a nonaqueous state. Most obvious, perhaps, is a loss of lipid, both that which is in the form of storage vesicles and that associated with tissue elements, particularly membranes. Loss of water during dehydration may also lead to tissue shrinkage of 5-70% (volume change) depending on the tissue and dehydrating agent.

Short-term volume and turgor regulation in yeast

2008 ◽  
Vol 45 ◽  
pp. 147-160 ◽  
Author(s):  
Jörg Schaber ◽  
Edda Klipp
Keyword(s):  
Dynamic Model ◽  
Volume Change ◽  
Volume Regulation ◽  
Time Course ◽  
Osmotic Shock ◽  
Intracellular Concentration ◽  
Short Term ◽  
Hydrodynamic Property ◽  
Turgor Regulation ◽  
Thermodynamic Framework

Volume is a highly regulated property of cells, because it critically affects intracellular concentration. In the present chapter, we focus on the short-term volume regulation in yeast as a consequence of a shift in extracellular osmotic conditions. We review a basic thermodynamic framework to model volume and solute flows. In addition, we try to select a model for turgor, which is an important hydrodynamic property, especially in walled cells. Finally, we demonstrate the validity of the presented approach by fitting the dynamic model to a time course of volume change upon osmotic shock in yeast.

FREE VOLUME CHANGE OF METALLIC GLASSES STUDIED BY THERMAL EXPANSION MEASUREMENTS

1980 ◽  
Vol 41 (C8) ◽  
pp. C8-875-C8-877
Author(s):  
E. Girt ◽  
P. Tomić ◽  
A. Kuršumović ◽  
T. Mihać-Kosanović
Keyword(s):  
Thermal Expansion ◽  
Free Volume ◽  
Volume Change ◽  
Metallic Glasses
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