Airbase

AIRBASE is the Bibliographic Database of the AIVC. It contains publications and abstracts of articles related to energy efficient ventilation. Where possible, sufficient detail is supplied in the bibliographic details for users to trace and order the material via their own libraries. Topics include: ventilation strategies, design and retrofit methods, calculation techniques, standards and regulations, measurement methods, indoor air quality and energy implications etc. Entries are based on articles and reports published in journals, internal publications and research reports, produced both by university departments and by building research institutions throughout the world. AIRBASE has grown and evolved over many years (1979 to present day, over 22000 references and 16000 documents available online). For most of the references, the full document is also available online.

Access to the publications is free of charge.

The purpose of this paper is to document the potential impact on indoor air quality of outdoorozone during photochemical pollution episodes.
Nicolas M., Ramalho O., Maupetit F.
A material emission database was developed for 48 building materials based on ASTM testmethods. The database consists of model coefficients for the five to six most abundant volatileorganic compounds (VOCs) emitted from each building material.
Won D., Magee R.J., Lusztyk E., Nong G., Zhu J.P., Zhang J.S., Reardon J.T., Shaw C.Y.
A 3-year research project was established in 1999 to create numerical reference data forindoor air quality follow-up in new buildings.
Jarnstrom H., Saarela K.
Unique means to evaluate IAQ with passive sampling devices are described in this paper.They are simple, silent and require less equipment.
Asai M., Matsumoto J., Tanabe S.
Now believed to be responsible for anaphylaxis to chemical substances, concentrations of formaldehyde and VOCs emitted by interior finish materials and furniture, is very low in residential spaces.
Yamaguchi M., Tomioka K.
Indoor chemistry is receiving attention due to the possible health effects of products ofreactions between indoor pollutants, and the potential for such products to contribute to indoorparticulate matter (PM).
Rohr A.C.
This study has done for setting the criteria for emission from building materials and a methodto test for formaldehyde (HCHO).
Jo W., Kim H., Jeon J., Kang D.
Indoor air quality (IAQ) in a house using building materials with low chemical emission wasinvestigated for 8 months.
Marumoto N., Suzuki N., Tanabe S.
This study reports the attained indoor air quality in new buildings when using different M1-classified finishing materials and ventilation systems.
Saarela K., Jarnstrom H., Tirkkonen T., Villberg K.
The purpose of this paper is to present an experimental setup developed to characterizereactions between ozone and building products and document their potential impact on indoorair quality.
Nicolas M., Ramalho O., Maupetit F.
Before starting a French nationwide survey, a pilot study was conducted in 2001 on 90dwellings in three geographical areas (North, East and South of France).
Kirchner S., Gauvin S., Golliot F., Ramalho O., Pennequin A.
Evaluating the VOC source and sink behaviour of porous materials is important for thedetermination of the VOC concentration levels in indoor air environment.
Lee C.S., Ghaly W.S., Haghighat F.
This study theoretically investigates the impact of air velocity and temperature on the sourceand sink behaviour of porous building materials, by applying the analytical model proposedin Part I.
Lee C.S., Ghaly W.S., Haghighat F.
The research emphasized on typical characteristics of interior decoration material, decoratedarea and relative influence factors to consider about the contaminants concentration of TVOCand formaldehyde in Taiwan.
Li Y-Y., Chiang C-M, Lee C-S, Chen N-T, Su H-J
We measured the temperature, relative air humidity (RH), carbon dioxide (CO2), ozone (O3),nitrogen dioxide (NO2), and formaldehyde levels in 30 classrooms in 10 schools in Shanghai.The pupils received a questionnaire; 1414 participated (99%).
Mi Y-H, Norbäck D., Tao J., Mi Y.-L., Ferm M.
This study highlights the presence of dominant source/s of several VOCs and theirgeographical similarities and differences within European Union (EU) and Singaporebuildings.
Zuraimi M.S., Roulet C.-A. , Sekhar S.C. , Tham K.W. , Cheong K.W. , Wong N.H., . Lee H.K
As part of a larger indoor environmental study, residential indoor and outdoor levels ofnitrogen dioxide (NO2) were measured for 14 houses in a suburb of Brisbane, Queensland,Australia.
He C., Morawska L., Hitchins J., Gilbert D.
Exposure data from the EXPOLIS study was used to compare the contributions of indoor andoutdoor sources to personal exposure to selected VOCs (TVOC, benzene, xylenes,ethylbenzene, nonane, decane, undecane, alpha-pinene and 3-carene) in Athens, Bas
Ilacqua V., Jantunen M.
Semi-volatile organic compounds (SVOCs), emitted from building materials and othersources in the indoor environments, are likely to be bound to particulates due to theirrelatively low vapour pressure.
Zhu J., Aikawa B.
The results of an investigation into the capacity of the indoor potted-plant/growth mediummicrocosm to remove air-borne volatile organic compounds (VOCs) which contaminate theindoor environment, using three plant species, Howea forsteriana Becc.
Wood R.A., Orwell R.L., Tarran J., Torpy F., Burchett M.

Pages