Ventilation & CFD

Organizations

 

1. Building and Fire Research Laboratory (USA)

The Building and Fire Research Laboratory studies building materials; computer-integrated construction practices; fire science
and fire safety engineering; and structural, mechanical, and environmental engineering. Products of the laboratory's research
include measurements and test methods, performance criteria, and technical data that supports innovations by industry and are
incorporated into building and fire standards and codes.

Although their activities concern mainly about Fire research, there are lots of topics concerning the fire and ventilation simulation by CFD method. On their site they are lots of full length articles(downloadable as PDF or PS file) with subject search or categary search, and very useful links to other related sites. Highly consultable.

Online Publication Database(Since 1994~Present )

 

2. Indoor Environmental Engineering

Department of Building Technology and Structural Engineering at Aalborg University, Denmark

Research fields

The research activities of the indoor environmental group are divided into two main subjects:

Air flow and contaminant distribution in ventilated rooms

Models and control strategies for energy consumption in buildings

Publications

 

3. Lawrence Berkeley National Laboratory Environmental Energy Technology Division (USA)

Indoor Environment Department

Main Research Areas:

COMIS Multizone Air Flow Model

Documentation, User Guide, Publication, User Group etc.. COMIS is in public domain.

 

4. INVENT-"Industrial Ventilation" (Helsinki University of Technology, Finland)

COST G3 "Industrial Ventilation"

Advanced Applications of Energy Efficient Industrial Air Technology, Design Methodology

 

5. CSIRO's Advanced Ventilation Technologies in their

Advanced Thermal Technology Lab.

 

6. Murakami,Kato,Ikaga Laboratory

The major field of the Murakami and Kato Laboratories is environmental control engineering for building and urban technology based on both experimental techniques and numerical simulation methods.
Methods for predicting and controlling physical properties such as air flow, heat and contaminant diffusion and lighting through urban regions, around building complexes, within rooms and around human are studied. Research topics ranging from urban scale to human scale are pursued by Professor Murakami, those ranging from national scale to human space are done by Associate Professor Kato . Methods for controlling the physical environment of humans are studied from the view point of safety in disasters like fire and also from the view point of health and comfort in daily life.

The studies consist of following sub fields.
1) Measuring techniques of the physical environment of living spaces ranging from human to urban spaces;
2) Assessing and evaluating the environment and establishing design criteria;
3) Prediction methods using both experiments and numerical simulations of heat and flow and contaminant fields for living spaces;
4) Energy efficient methods for controlling human living spaces;
5) Synthetic and totaled assessment of the environment of human living spaces.

 

7. SELIGER project

The SELIGER is an Information and Simulation System which is largely oriented to investigations in the field of fluid mechanics, heat/mass transfer and related disciplines. The SELIGER is being developed in the framework of a long-term project aimed at creation of a symbiosis system on which basis the user can get necessary information about physical processes of interest via their numerical simulation and in doing so employ data obtained and/or collected previously by the SELIGER user community.

 

8. Erg--Building Simulation Group

 

9. FAGO, Department of Building and Architecture, Eindhoven University of Technology, The Netherlands

 

10. The Danish Building Research Institute (SBI)

SBI is attached to the Danish Ministry of Housing and Urban Affairs. SBI's main fields of research are architecture, housing and welfare, urban development and policy, urban ecology and sustainability, condition surveys and durability assessment, productivity, wall and glass structures, low-energy buildings, indoor climate including Moulds in Buildings, daylight in buildings, ventilation requirements and environmental impact from building activities.

Energy and Indoor Climate Division (e&i)

The division's research endeavours to provide knowledge and a basis for providing responsible building in terms of energy, indoor climate, environment and architecture, including development of methods and design tools to further significant reduction of energy consumption for heating and ventilation and also to reduce environmental loads caused by building from cradle-to-grave.

 

11. Refrigerating Engineering & Indoor Climate Technology of Department of Mechanical Engineering of Delft University of Technology

 

12. Laboratory of Ventilation and Air Quality of Centre for Built Environment of KTH

 

13. The Energy Systems Research Unit (ESRU), Department of Mechanical Engineering at the University of Strathclyde UK

Recent and Ongoing Research(Energy simulation[multi-zone]approach)

Advanced Environmental Simulation
Product Modelling
Model Validation
Design Performance Assessment
Development of Modular Simulation Tools
Intelligent Front-Ends
Energy Monitoring, Targeting and Management
Computer Aided Learning
Building Performance Monitoring
Advanced Design / Modelling Concepts
Computational Fluid Dynamics (CFD)
Wind Turbine Performance Assessment

 

14. AIVC--Air Infiltration and Ventilation Centre

AirBase

AIVC Database Search

15. ASHRAE

Document Search

16. IEA(International Energy Agency)

ECBCS

17. Indoor environment and energy, Department of Energy Engineering; Indoor Climate, Department of Buildings and Energy; International Centre for Indoor Environment and Energy(links), Technical University of Denmark

18. Building Science at U. C. Berkeley***


Building Science at the University of California Berkeley is dedicated to the energy efficiency and environmental quality of buildings. Its underlying premise is that energy-use patterns and environmental quality are related, and that this relationship contains great opportunities to improve the built environment. Building Science also has the objective of breaking down the compartmentalized decision-making that now characterizes building practice. Its research and teaching address the decisions made by architects, engineers, specifiers, facilities managers, and owners.

Such decisions are important, in that they affect:


building occupants (who on average spend over ninety percent of their lives indoors, and whose health and productivity is influenced by the environment of the workplace)
buildings' energy use (in aggregate over one-third of our nation's energy consumption)
building costs (one of the largest categories of the nation's capital outlay)

Centre for the Built Environment, Univ. of California at Berkeley

19. Air Pollution Research Group, Departmentof Civil Engineering, The University of Toledo

20. Computational Fluid Dynamics Laboratory, Univ. of Tennessee

21. Indoor Environment, Institute for Research in Construction, Canada

22. COMBINE 2--COmputer Models for the Building INdustry in Europe

23. Indoor Environment and Energy Research Group, Dr. Awbi, H. B. , UK

24. Laboratoire Sciences de l'Habitat (FR)

25. Laboratoire d'Etude des Ph�nom�nes de Transfert Appliqu�s au B�timent, FR

26. School of the Built Environment, The University of Nottingham, UK

27. Air & Climate, Institute of Building Technology, Department of Architecture, ETHZ, CH

 

About Me
1
Hosted by www.Geocities.ws