会议名称(中文): 第五届多孔介质及应用国际会议
会议名称(英文): 5th International Conference on Porous Media
and its Applications in Science, Engineering and Industr
所属学科: 材料科学基础学科,纳米科学与技术
开始日期: 2014-06-22
结束日期: 2014-06-27
所在国家: 美国
所在城市: 美国
具体地点: Kona, Hawaii, USA
主办单位: University of California, Riverside
[ 会务组联系方式 ]
联系人: Prof. Kambiz Vafai
E-MAIL: Vafai@engr.ucr.edu
会议网站: http://www.engconf.org/conferences/materials-
science-including-nanotechnology/5th-international-conference-
on-porous-media-and-its-applications-in-science-engineering-and-
industry/
会议背景介绍: We have organized and held four very
successful conferences on Porous Media and its Applications in
Science, Engineering and Industry: in 1996 (Kona, Hawaii), in
2007 (Kauai, Hawaii), in 2010 (Montecatini, Italy), and in 2012
(Potsdam, Germany). We are going back to location of our first
conference in 1996! Each conference had participants from well
over 20 countries.
This conference will build on the 2012 conference so that it
reflects the research done internationally in the currently
active areas of the topic. The presence of the highly successful
Journal of Porous Media and editions of the very well received
Handbook of Porous Media will act as an additional impetus to
further galvanize this conference.
The pioneering works in the area of fluid transport as well
as some aspects of heat transport in porous media go back to the
beginning of the last century. Convective heat transfer in
fluid-saturated porous media has gained considerable attention in
recent decades due to its relevance in a wide range of
applications such as thermal insulation engineering, water
movements in geothermal reservoirs, heat pipes, underground
spreading of chemical waste, nuclear waste repository, geothermal
engineering, grain storage and enhanced recovery of petroleum
reservoirs. Radiative heat transfer and multiphase transport
processes in porous media, both with and without phase change,
have gained extensive attention in recent years. This is due to
the wide range of applicability of these research areas in
contemporary technology. These applications include, but are not
restricted to, areas such as geothermal engineering,building
thermal insulation, chemical catalytic reactors, packed cryogenic
microsphere insulation, petroleum reservoirs, direct contact heat
exchangers, coal combustors, nuclear waste repositories, and heat
pipe technology.
Several applications related to porous media require a
detailed analysis of convective heat transfer in
differentgeometrical shapes, orientations and configurations.
Based on the specific applications, the flow in the porous medium
may be internal or external. Most of the studies in porous media
carried out until the past two decades are based on the Darcy
flow model, which in turn is based on the assumption of creeping
flow through an infinitely extended uniform medium. However, it
is now generally recognized that non-Darcian effects are quite
important for certain applications.
Different models have been introduced for studying and
accounting for such non-Darcian effects as the inertial,
boundary, and variable porosity effects.
The ultimate goal of studies in convective heat transfer in
porous media is to determine the dimensionless heat transfer
coefficient, the Nusselt number. A considerable amount of
research has been carried out to accomplish this, and empirical
correlations for the Nusselt number for a variety of
configurations and boundary conditions have been established,
with certain limitation, of a wide variety of current
technological applications.
Many industrial operations in the areas of chemical and
metallurgical engineering involve the passage of a fluid stream
through a packed bed of particulate solids to obtain extended
solid fluid interfacial areas or good fluid mixing. Typical
examples of applications involving such systems include catalytic
and chromatographic reactions, packed absorption and distillation
towers, ion exchange columns, packed filters, pebble-type heat
exchanger, petroleum reservoirs, geothermal operations and many
others. The design of these systems is decided by mechanisms of
pressure drop, fluid flow and heat and mass transfer governing
the process in the packed bed arrangement. Considerable attention
has been paid to the aforementioned aspects because of their
direct influence on the optimization and stability of the design
of these systems.
Developments in modeling transport phenomena in porous media
have advanced several pertinent areas, such as biology. As such
the conference will also entertain papers related to bio
transport in porous media as well as research related to
turbulent modeling in porous media.
征文范围及要求: Preliminary Conference Outline
1. Natural and Forced Convection in Porous Media
2. Evaporation, Condensation, Capillary Effects and Reactive Flow
in Porous Media
3. Radiation Heat Transfer in Porous Media
4. Conduction in Porous Media
5. Combined Heat and Mass Transfer in Porous Media
6. Particle Transport and Deformable Porous Bodies
7. Advanced Mathematical Approaches to the Modeling of Porous
Media
8. Industrial and Environmental Heat Transfer and Flow in Porous
Media
9. Process Heat Transfer
10. Advances in Numerical Techniques
11. Experimental and Measuring Techniques
12. Turbulence in Porous Media13. Particle Migration and
Deposition in Porous Media
14. Bio Transport in Porous Media
15. Material Processing Applications