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 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.
Thermal and moisture performances of whole buildings are rather well understood today andvarious models exist for simulating those.
Salonvaara H.M., Zhang J.S., Karagiozis A.N.
An Integrated Zonal Model was developed to predict the three-dimensional airflow andcontaminant concentration distributions in a room. This model integrated a zonal model withmaterial emission/sink models.
Huang H., Haghighat F., Yoshino H.
VOCs concentration measurements in six hospitals were conducted, using passive samplers,in order to get outlined information on the IAQ.
Shiotsu M., Ikeda K.
The indoor environment is dynamic in nature, in particular, because of various emissionsources contributing with volatile organic compounds (VOCs).
Sanyal D.
The aim of this study is to help dimension the Sol Depressurization System against radon inexisting buildings.First, various remediation techniques implemented on existing buildings are comparedregarding the reduction of indoor radon concentration
Collignan B., O’Kelly P.
Information is needed about the overall nature of the reasonably foreseeable exposures fromconsumer products, including intended exposures of chemicals released into the air by design(e.g.
Schwela D., Hakkinen P., Papameletiou D.
This paper discusses research conducted to determine the status of indoor air chemicalpollution caused by formaldehyde in government offices in 2001.
Haruki O., Yasuhiro M., Kazuaki B., Hironori S.
Especially in new buildings we could find striking concentrations of MVOCs and we couldnot localize mould damage. We first supposed that some MVOC components are not specificfor microorganisms but normal VOC from new materials.
Virnich L., Lorenz W., Trautmann C.
The aim of the study was to find out if the location of material has effect onmicrobiological findings. Material samples (n = 735) were taken from the buildingswith susceptible moisture damages.
Reiman M., Kujanpää L., Kujanpää R.
Moisture-related indicators indoors are, e.g. visible mould and damp spots, condensation onthe inside of window panes, detached floor covering materials, flooding and bad odours.
Bornehag C.G., Sundell J., Hägerhed L., The DBH Study Group
In two school buildings, concentrations of viable fungal spores in air, material and insurface samples were high indicating moisture and mould damages. Microbesincluded numerous moisture indicating species (e.g.
Kujanpää L., Reiman M., Kujanpää R.
During the research, air samples were taken by exposure of agar plates and taking smearsamples from the AC equipment. Sampling took place during the autumn because theconcentration of spores at that time reaches its peak.
Butala M., Crnigoj M., Zalar P., V. Butala
Thirty classrooms in 10 schools in Shanghai, China, were investigated in winter. Dust wascollected by vacuum cleaning, analysed for ergosterol, muramic acid, and 3-hydroxy fattyacids (LPS) by tandem mass spectrometry (GC-MSMS).
Norbäck D., Mi Y., Larsson L., Wady L., Tao J., Mi Y.

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