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Publication Date:
June 2005
ISSN:
1437-4358
DOI:
10.1515/JNETDY.2000.004

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Editor-in-Chief: Keller, Jürgen U.

Ed. by Michaelides, Efstathios E. / Muschik, Wolfgang

Editorial Board Member: Andresen, Bjarne / Bejan, Adrian / Brüggemann, Dieter / Buchholz, Rainer / Dinkelacker, Friedrich / Do, Duong / Groll, Manfred / Gross, Joachim / Hoffmann, Karl-Heinz / Kalliadasis, Serafim / Kjelstrup, S. / Lebon, Georgy / Maugin, G. A. / Raffa, Robert B. / Rubi, J. Miguel / Scholl, Stephan / Steinchen, Annie / Stockar, Urs / Verhas, Jozsef / Winter, Roland / Zaman, Muhammad / Ahlborn, Boye / Bedeaux, Dick / Fox, Ronald F. / Kizilova, Natalya / Kollmann, W. / Ricard, Jacques / Sieniutycz, Stanislaw / Velarde, M.G. / Papenfuss, Christina / Stark, Holger

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Rank 25 out of 52 in category Thermodynamics in the 2011 Thomson Reuters Journal Citation Report/Science Edition.

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A Class of Discrete Kinetic Solutions for Non-Boundary-Driven Gas Flow

Rainer Kwang-Hua Chu / Yitshak Zohar

Citation Information: Journal of Non-Equilibrium Thermodynamics. Volume 25, Issue 1, Pages 49–62, ISSN (Print) 0340-0204, DOI: 10.1515/JNETDY.2000.004, June 2005

Publication History:
Published Online:
2005-06-01

Abstract

Discrete kinetic theory approach has been used to study dilute, monatomic, non-equilibrium gas flow between two walls in microdomains. A four-velocity coplanar model has been adopted, where the microscopic velocity-orientation angle and the Knudsen number are free parameters, which have to be prescribed. Diffusive reflection boundary condition has been incorporated to obtain the solution. A bounded range for the admissible orientation angle of the discrete velocity vectors for any given Knudsen number is identified. Consequently, the macroscopic velocity slip at the wall, the velocity profile across the walls and the volume flow rate is calculated as a function of the free parameters. The calculations based on a single model, 4-velocity, cover the transition flow regime between the continuum and the free-molecular flow. The calculated volume flow rate is compared with experimental data as well as with other theoretical models.

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