Search Images Maps Play YouTube News Gmail Drive More »
My library | Help | Advanced Book Search | Web History | Sign in

Books

Porous and Complex Flow Structures in Modern Technologies

Front Cover
Adrian Bejan
1 Review
Springer, Apr 29, 2004 - Science - 396 pages
Porous and Complex Flow Structures in Modern Technologies represents a new approach to the field, considering the fundamentals of porous media in terms of the key roles played by these materials in modern technology. Intended as a text for advanced undergraduates and as a reference for practicing engineers, the book uses the physics of flows in porous materials to tie together a wide variety of important issues from such fields as biomedical engineering, energy conversion, civil engineering, electronics, chemical engineering, and environmental engineering. Thus, for example, flows of water and oil through porous ground play a central role in energy exploration and recovery (oil wells, geothermal fluids), energy conversion (effluents from refineries and power plants), and environmental engineering (leachates from waste repositories). Similarly, the demands of miniaturization in electronics and in biomedical applications are driving research into the flow of heat and fluids through small-scale porous media (heat exchangers, filters, gas exchangers). Filters, catalytic converters, the drying of stored grains, and a myriad of other applications involve flows through porous media. By providing a unified theoretical framework that includes not only the traditional homogeneous and isotropic media but also models in which the assumptions of representative elemental volumes or global thermal equilibrium fail, the book provides practicing engineers the tools they need to analyze complex situations that arise in practice. This volume includes examples, solved problems and an extensive glossary of symbols.
  

What people are saying - Write a review

We haven't found any reviews in the usual places.

Related books

Contents

Porous Media Fundamentals
1
111 Microporous Media
5
112 Mesoporous Media
6
113 Macroporous Media
7
13 Darcy Flow and More Advanced Models
10
14 Energy Conservation
17
15 Heat and Mass Transfer
23
151 Fluid Flow
28
51 Heat Exchangers as Porous Media
194
52 Optimal Spacings in Natural Convection
201
53 Optimal Spacings in Forced Convection
207
54 Pulsating Flow
212
55 Optimal Packing of Fibrous Insulation
216
TreeShaped Flows
218
57 Dendritic Heat Exchangers
224
572 First Construct
229

152 Heat Flow
29
Flows in Porous Media
31
22 Scale Analysis of Forced Convection Boundary Layers
33
23 Sphere and Cylinder with Forced Convection
37
24 Channels with Porous Media and Forced Convection
38
25 Scale Analysis of Natural Convection Boundary Layers
40
26 Thermal Stratification and Vertical Partitions
42
27 Horizontal Walls with Natural Convection
45
28 Sphere and Horizontal Cylinder with Natural Convection
46
29 Enclosures Heated from the Side
47
210 Enclosures Heated from Below
53
211 The Method of Intersecting the Asymptotes
58
2111 The Many Counterflows Regime
60
2112 The Few Plumes Regime
61
2113 The Intersection of Asymptotes
64
Energy Engineering
67
32 Exergy Analysis
71
33 Thermal Energy Storage
76
34 Sensible Heat Storage
80
35 Aquifer Thermal Energy Storage
87
36 Latent Heat Storage
89
37 Cold Thermal Energy Storage
96
38 Porous Medium Model of a Storage System with PhaseChange Material
100
39 Fuel Cell Principles and Operation
105
310 Fuel Cell Structure and Performance
109
311 The Concept of ExergyCostEnergyMass EXCEM Analysis
119
312 Exergy Environment and Sustainable Development
120
Environmental and Civil Engineering
125
Concentrated Heat Sources in Forced Convection
126
Concentrated Heat Sources in Natural Convection
127
44 Penetrative Convection
130
45 Aerosol Transport and Collection in Filters
134
46 Filter Efficiency and Filtration Theories
139
47 Pressure Drop Permeability and Filter Performance
146
48 Ionic Transport
152
49 Reactive Porous Media
156
410 Electrodiffusion
162
411 TreeShaped Flow Networks
166
412 Optimal Size of Flow Element
173
413 Hot Water Distribution Networks
177
414 Minimal Resistance Versus Minimal Flow Length
183
Compact Heat Transfer Flow Structures
193
573 Second Construct
230
58 Constructal Multiscale Structure for Maximal Heat Transfer Density
238
581 Heat Transfer
241
582 Fluid Friction
242
The Smallest Scale
243
59 Concluding Remarks
245
Living Structures
247
611 Airflow Within the Bronchial Tree
249
612 Alveolar Gas Diffusion
250
613 Particle Deposition
251
62 Blood and the Circulatory System
253
Structure and Transport Mechanisms
254
632 Capillary Wall
263
64 Transport of Neutral Solutes Across Membranes
266
65 Transport of Charged Solutes Across Membranes
275
651 Membrane Potential
276
652 Electrical Equivalent Circuit
278
66 The Kidney and the Regulation of Blood Composition
279
661 Kidney Failure and Dialysis
280
662 Pumping Blood Through Semipermeable Membranes
281
Drying of Porous Materials
283
72 Drying Equipment
284
74 Basic Heat and Moisture Transfer Analysis
285
75 Wet Material
288
76 Types of Moisture Diffusion
294
77 Shrinkage
295
78 Modeling of PackedBed Drying
298
79 Diffusion in Porous Media with Low Moisture Content
302
710 Modeling of Heterogeneous Diffusion in Wet Solids
303
7101 Mass Transfer
304
7102 Heat Transfer
305
7103 Boundary Conditions
306
7105 Heat and Mass Transfer Coefficients
308
711 Correlation for the Drying of Solids
310
Multidisciplinary Applications
315
82 Fibers Coated with PhaseChange Material
326
Gas Formation and Convection
337
Nomenclature
349
References
359
Index
389
Copyright

Common terms and phrases

References to this book

From other books

Emerging Technologies and Techniques in Porous Media
Advances in Chemical Engineering: Mathematics and Chemical Engineering and ...
All Book Search results »

From Google Scholar

The constructal law and the thermodynamics of flow systems with ...
A Bejan, S Lorente - 2004 - International Journal of Heat and Mass Transfer
Constructal theory of generation of configuration in nature and ...
Adrian Bejan, Sylvie Lorente - 2006 - Journal of Applied Physics
Analytic Series Solution for Unsteady Mixed Convection Boundary ...
Jun Cheng, Shijun Liao, Ioan Pop - 2005 - Transport in Porous Media
Constructal theory of flow architecture of the lungs
AH Reis, AF Miguel, M Aydin - 2004 - Medical Physics
All Scholar search results »

References from web pages

Porous and complex flow structures in modern technologies
Porous and Complex Flow Structures in Modern Technologies represents a new approach to the field, considering the fundamentals of porous media in terms of ...
www.construmatica.com/ libros/ l/ porous_and_complex_flow_structures_in_modern_technologies/ 34550

livre porous and complex flow structures in modern technologies ...
livre science des materiaux, resistance mecanique, et genie biomedical, biomateriaux : porous and complex flow structures in modern technologies represents ...
www.lavoisier.fr/ notice/ fr408063.html

Ensino Magazine
Adrian Bejan foi coordenador científico da “School on Porous and Complex Flow Structures in Modern Technologies”, que se realizou nesta instituição em Junho ...
www.ensino.eu/ 2003/ nov2003/ universidade1.html

Librería Intertecnica
Datos del libro: Porous and complex flow structures in modern technologies. Añadir al carrito. Autor, ADRIAN BEJAN. Editor, SPRINGER VERLAG ...
www.inter-tecnica.com/ lista/ verlibro.php?id=9780387202259

Daum 책
Porous and Complex Flow Structures in Modern Technologies. 분야 기술공학. 책 이미지. Bejan, Adrian (EDT)/ Dincer, Ibrahim/ Lorente, Syl 지음|Springer ...
book.daum.net/ bookdetail/ book.do?bookid=ENG9780387202259

Consulta de catàlegs de l'UPV
Títol, Porous and complex flow structures in modern technologies / Adrian Bejan ...[et al.] Publicació, New York : Springer, 2004 ...
www.upv.es/ pls/ obib/ sic_opac.FichaCampos?p_vista=& p_idioma=& p_bus=& p_nlib=235078& p_catalogador=& p_tipodoc=

About the author (2004)

ADRIAN BEJAN is J. A. Jones Professor of Mechanical Engineering at Duke University. He is author of Convection Heat Transfer, Second Edition; Advanced Engineering Thermodynamics; and Heat Transfer; all published by Wiley.

GEORGE TSATSARONIS is BEWAG Professor of Energy Conversion and Protection of the Environment at the Technical University of Berlin.

MICHAEL MORAN is Professor of Mechanical Engineering at The Ohio State University. He is coauthor (with Howard N. Shapiro) of Fundamentals of Engineering Thermodynamics, now in its third edition and published by Wiley. He is also the author of Availability Analysis: A Guide to Efficient Energy Use.

Bibliographic information