Blog Archive
-
▼
2011
(102)
-
▼
June
(29)
- Comparison of two winter air quality episodes duri...
- Seasonal and spatial variation of solvent extracta...
- Roadside particulate air pollution in Bangkok. (Te...
- Defining the photochemical contribution to particu...
- Evaluation of the RAMS continuous monitor for dete...
- Source identification of Atlanta aerosol by positi...
- In vivo measurements of inhalability of ultralarge...
- Particle displacement tracking applied to air flow...
- Spatial and Temporal Characterization of [PM.sub.2...
- Methods of characterizing the distribution of exha...
- Model for estimation of traffic pollutant levels i...
- Alternatives to the gravimetric method for quantif...
- An optimal spatial configuration of sample sites f...
- Particulate matter emission factors for almond har...
- Analysis of traffic and meteorology on airborne pa...
- Effects of sulfur dioxide and oxides of nitrogen e...
- Sensitivity of source apportionment of urban parti...
- Development of molecular marker source profiles fo...
- Sensitivity analysis and evaluation of MicroFacPM:...
- Passive sampler for [PM.sub.10-2.5] aerosol.(TECHN...
- Vapor-phase and fine particulate matter concentrat...
- Wood smoke contribution to winter aerosol in Fresn...
- A Comprehensive Particulate Matter Monitoring Syst...
- The recovery of ammonia and hydrogen sulfide from ...
- Characterization of carbonaceous species of ambien...
- Temporal analysis of airborne particulate matter r...
- An improved method for estimating surface fine par...
- Use of the Aerodynamic Particle Sizer to measure a...
- New York state urban and rural measurements of con...
-
▼
June
(29)
In vivo measurements of inhalability of ultralarge aerosol particles in [An article from: Journal of Aerosol Science]
This digital document is a journal article from Journal of Aerosol Science, published by Elsevier in 2006. The article is delivered in HTML format and is available in your Amazon.com Media Library immediately after purchase. You can view it with any web browser.Description: This work measured the nasal inhalability of ten human subjects in different inspiratory flow rates under calm air condition and compared the results with the manikin studies in the literature. The results obtained indicate significant inhalability differences exist when human subjects breathe at rest versus moderate exercise. The difference however is within 10% of uncertainty limit and is not practically important in designing air sampler. The cutoff size for nasal inhalation was found to be approximately 135@mm, particles larger than this size will not be the concern for human health. The comparison of the in vivo and manikin measurements suggests the natural convective air current, resulting from the human body heat, might interact with the settling of airborne particles in calm air and cause a slightly higher inhalability for particles smaller than 50@mm. This study concludes that the revision of the current ACGIH IPM is recommended and the human inhalability under typical windspeeds at workplaces should be taken into account.
Published on: 2006-08-01 Format: HTML Binding: Digital 6 pages
0 comments:
Post a Comment