Micro- and Nanoflows: Modeling and Experiments
Lieferzeit: 7-14 Werktage
- Artikel-Nr.: 10463703
Beschreibung
1 Methods of Modeling of Microflows and Nanoflows
Abstract
1.1 Considered Systems and Their Classification
1.2 Modeling of Rarefied Gas Microflows
1.3 Modeling of Moderately Dense Gases
1.4 Modeling of Dense Gas and Liquid Flows
1.5 Modeling of Disperse Fluid Flows
1.6 Modeling of Nanofluid Microflows
1.7 Molecular Dynamics Method
References
2 Gasdynamic Structure and Stability of Gas Microjets
Abstract
2.1 Investigation and Application of Microjets
2.2 Stability of a Subsonic Plane Gas Microjet
2.3 Structure and Characteristics of Stability of Supersonic
Axisymmetric Microjets
2.4 Microjet Simulation with the Use of Macrojets
References
3 Fluid Flows in Microchannels
Abstract
3.1 Methods of Determining the Hydraulic Resistance Coefficient in Tubes
3.2 Fabrication Technology and Characteristics of Microchannels
3.3 Experimental Arrangement
3.4 Errors of Microchannel Measurements
3.5 Fluid Flow in Straight Tubes
3.6 Fluid Flows in Curved Tubes
References
4 Modeling of Micromixers
Abstract
4.1 Algorithm for Solving the Navier-Stokes Equations
4.2 Testing of the Algorithm
4.3 Mixing of Fluids in a Y-type Mixer at Low Reynolds Numbers
4.4 Mixing of Fluids in a T-type Micromixer at Moderate Reynolds Numbers
4.5 Experimental Study of Flow Regimes in a T-type Micromixer
4.6 Modeling of Two-phase Flows in a T-type Micromixer
4.7 Heat Transfer in a T-type Micromixer
4.8 Active Method of Mixing
References
5 Modeling of Nanoflows
Abstract
5.1 Molecular Dynamics Simulation of a Channel Flow Generated by an
External Force
5.2 Algorithm of Modeling a Plane Nanoflow under Pseudo-periodic
Conditions
5.3 Algorithm of Modeling a Plane Nanoflow with a Prescribed Flow Rate
5.4 Specific Features of Nanoflows in MD Simulations
5.5 Diffusion of Molecules in Nanochannels
5.6 Self-diffusion of Molecules in Porous Media
5.7 Modeling of Nanofluid Separation with the Use of Nanomembranes
References
6 Fluid Transport under Constrained Conditions
Abstract
6.1 Statistical Theory of Transport Processes6.2 On Fluid Viscosity in the Nanochannel
References
Conclusions
References
Eigenschaften
Breite: | 158 |
Gewicht: | 634 g |
Höhe: | 240 |
Länge: | 17 |
Seiten: | 241 |
Sprachen: | Englisch |
Autor: | Anatoly A. Maslov, Valery Ya. Rudyak, Vladimir M. Aniskin |