Theoretical interpretation of the dissolving of gas bubbles in liquids has usually been based on a model which ignores the effect of motion of the liquid on the concentration field and predicts a linear relation between square of sixe and time. Experimental data plotted in this way often show a decr
β¦ LIBER β¦
Diffusion of a dissolved gas in a flow with a stationary cavity
β Scribed by A. S. Gorshkov
- Publisher
- Springer US
- Year
- 1967
- Tongue
- English
- Weight
- 241 KB
- Volume
- 13
- Category
- Article
- ISSN
- 1573-871X
No coin nor oath required. For personal study only.
π SIMILAR VOLUMES
The dissolving of stationary gas bubbles
β
M. Cable
π
Article
π
1967
π
Elsevier Science
π
English
β 593 KB
Flow of a gas in an axisymmetric cavity
β
I. A. Belov; R. N. Kogtev
π
Article
π
1967
π
Springer US
π
English
β 162 KB
Fluctuations in cavities in a supersonic
β
N. L. Zaugol'nikov; M. A. Koval'; A. I. Shvets
π
Article
π
1990
π
Springer
π
English
β 619 KB
Maxwellian gas undergoing a stationary P
β
Mohamed Sabbane; Mohamed Tij; AndrΓ©s Santos
π
Article
π
2003
π
Elsevier Science
π
English
β 348 KB
Circulating rarefied gas flow in a rotat
β
V. D. Borisevich; S. V. Yupatov
π
Article
π
1990
π
Springer
π
English
β 203 KB
Diffusion of a trace gas into a flowing
β
Robert L. Brown
π
Article
π
1970
π
John Wiley and Sons
π
English
β 139 KB
## Abstract Numerical Methods were used to solve the differential equation for diffusion of a trace gas into a flowing carrier gas having a parabolic velocity profile in a cylindrical tube. Steady state solutions are given in the form of contour diagrams of constant trace gas concentration.