Access the full text.
Sign up today, get DeepDyve free for 14 days.
Loading next page...
/lp/csiro-publishing/clarification-of-the-predominant-emission-sources-of-antimony-in-tQfA0kqW0g
References (28)
-
P. Campbell (2006)
Cadmium—A Priority PollutantEnvironmental Chemistry, 3
-
Jianmin Chen, M. Tan, Yulan Li, Jian Zheng, Yuanmao Zhang, Zuci Shan, Guilin Zhang, Yan Li (2008)
Characteristics of trace elements and lead isotope ratios in PM(2.5) from four sites in Shanghai.Journal of hazardous materials, 156 1-3
-
A. Iijima, H. Tago, Kimiyo Kumagai, Masahiko Kato, K. Kozawa, Keiichi Sato, N. Furuta (2008)
Regional and seasonal characteristics of emission sources of fine airborne particulate matter collected in the center and suburbs of Tokyo, Japan as determined by multielement analysis and source receptor models.Journal of environmental monitoring : JEM, 10 9
-
C. Palma, G. Evans, R. Sodhi (2007)
Imaging of aerosols using time of flight secondary ion mass spectrometryApplied Surface Science, 253
-
(2005)
Smichowski, Antimony: a traffic-related element in the atmosphere of Buenos Aires, Argentina -
R. Ebinghaus (2008)
Mercury cycling in the Arctic – does enhanced deposition flux mean net-input?Environmental Chemistry, 5
-
D. Gomez, María Giné, Ana Bellato, P. Smichowski (2005)
Antimony: a traffic-related element in the atmosphere of Buenos Aires, Argentina.Journal of environmental monitoring : JEM, 7 12
-
(2005)
Anti - mony : a traffic - related element in the atmosphere of Buenos Aires , Argentina -
G. Weckwerth (2001)
Verification of traffic emitted aerosol components in the ambient air of Cologne (Germany)Atmospheric Environment, 35
-
Weckwerth G.
Verification of traffic-emitted aerosol components in the ambient air of -
Y. Gao, E. Nelson, M. Field, Q. Ding, H. Li, R. Sherrell, C. Gigliotti, D. Ry, T. Glenn, S. Eisenreich (2002)
Characterization of atmospheric trace elements on PM2.5 particulate matter over the New York-New Jersey harbor estuaryAtmospheric Environment, 36
-
K. Tsunemi, H. Wada (2008)
Substance Flow Analysis of Antimony for Risk Assessment of Antimony and Antimony Compounds in JapanJournal of The Japan Institute of Metals, 72
-
M. Krachler, James Zheng, R. Koerner, C. Zdanowicz, D. Fisher, W. Shotyk (2005)
Increasing atmospheric antimony contamination in the northern hemisphere: snow and ice evidence from Devon Island, Arctic Canada.Journal of environmental monitoring : JEM, 7 12
-
A. Iijima, Keiichi Sato, K. Yano, Masahiko Kato, K. Kozawa, N. Furuta (2008)
Emission factor for antimony in brake abrasion dusts as one of the major atmospheric antimony sources.Environmental science & technology, 42 8
-
T. Narukawa, A. Takatsu, K. Chiba, K. Riley, D. French (2005)
Investigation on chemical species of arsenic, selenium and antimony in fly ash from coal fuel thermal power stations.Journal of environmental monitoring : JEM, 7 12
-
Cuicui Qi, Guijian Liu, C. Chou, Liugen Zheng (2008)
Environmental geochemistry of antimony in Chinese coals.The Science of the total environment, 389 2-3
-
J. Cloy, J. Farmer, Margaret Graham, A. Mackenzie, G. Cook (2005)
A comparison of antimony and lead profiles over the past 2500 years in Flanders Moss ombrotrophic peat bog, Scotland.Journal of environmental monitoring : JEM, 7 12
-
J. Pacyna, E. Pacyna (2001)
An assessment of global and regional emissions of trace metals to the atmosphere from anthropogenic sources worldwideEnvironmental Reviews, 9
-
W. Shotyk, M. Krachler, Bin Chen (2004)
Antimony in recent, ombrotrophic peat from Switzerland and Scotland: Comparison with natural background values (5,320 to 8,020 14C yr BP) and implications for the global atmospheric Sb cycleGlobal Biogeochemical Cycles, 18
-
M. Krachler, Jiancheng Zheng, D. Fisher, W. Shotyk (2008)
Atmospheric Sb in the Arctic during the past 16,000 years: Responses to climate change and human impactsGlobal Biogeochemical Cycles, 22
-
S. Jiménez, M. Perez, J. Ballester (2008)
Vaporization of trace elements and their emission with submicrometer aerosols in biomass combustionEnergy & Fuels, 22
-
A. Iijima, Keiichi Sato, K. Yano, H. Tago, Masahiko Kato, H. Kimura, N. Furuta (2007)
Particle size and composition distribution analysis of automotive brake abrasion dusts for the evaluation of antimony sources of airborne particulate matterAtmospheric Environment, 41
-
N. Furuta, A. Iijima, Akiko Kambe, K. Sakai, Keiichi Sato (2005)
Concentrations, enrichment and predominant sources of Sb and other trace elements in size classified airborne particulate matter collected in Tokyo from 1995 to 2004.Journal of environmental monitoring : JEM, 7 12
-
B. Maher (2005)
Foreword: Research Front—Arsenic BiogeochemistryEnvironmental Chemistry, 2
-
W. Shotyk, Bin Chen, M. Krachler (2005)
Lithogenic, oceanic and anthropogenic sources of atmospheric Sb to a maritime blanket bog, Myrarnar, Faroe Islands.Journal of environmental monitoring : JEM, 7 12
-
N. Mokgalaka, R. McCrindle, B. Botha (2004)
Multielement analysis of tea leaves by inductively coupled plasma optical emission spectrometry using slurry nebulisationJournal of Analytical Atomic Spectrometry, 19
-
Jian Zheng, M. Tan, Y. Shibata, A. Tanaka, Yan Li, Guilin Zhang, Yuanmao Zhang, Zuci Shan (2004)
Characteristics of lead isotope ratios and elemental concentrations in PM10 fraction of airborne particulate matter in Shanghai after the phase-out of leaded gasolineAtmospheric Environment, 38
-
H. Jang, S. Kim (2000)
The effects of antimony trisulfide (Sb2S3) and zirconium silicate (ZrSiO4) in the automotive brake friction material on friction characteristicsWear, 239
- Publisher
- CSIRO Publishing
- Copyright
- CSIRO
- ISSN
- 1448-2517
- eISSN
- 1449-8979
- DOI
- 10.1071/EN08107
- Publisher site
- See Article on Publisher Site
Abstract
Environmental context. The remarkable enrichment of potentially toxic antimony (Sb) in inhalable airborne particulate matter has become of great environmental concern among recent air pollution issues. The present study clarifies the predominant sources of Sb by focusing on the similarities in elemental composition, particle size distributions, and microscopic images found in ambient airborne particles and several potential sources. We identify automotive brake abrasion dust and fly ash emitted from waste incineration as dominant sources of atmospheric Sb in Japan. These results will contribute towards an in-depth understanding of the cycles and fates of Sb in the environment. Abstract. By focusing on the similarities in elemental composition, particle size distributions of elemental concentrations, and microscopic images between ambient airborne particulate matter (APM) and several potential sources, we discuss the predominant sources of antimony (Sb) in APM in Japan. The distribution of Sb concentration in size-classified ambient APM showed a characteristic bimodal profile in which peaks were found in coarse (3.6–5.2 μm) and fine (0.5–0.7 μm) fractions. Elemental ratios, particle sizes, and microscopic images observed in the coarse APM fractions were found to be in good agreement with those of brake abrasion dust. However, in the fine APM fractions, fly ash originating from waste incineration was identified as the most probable source of Sb. Chemical mass balance analysis was performed to determine the effects of the emission sources of Sb, and it was revealed that brake abrasion dust and waste fly ash were the dominant sources of Sb in the coarser and the finer fractions of APM, respectively. The present study provides important clues to understanding the cycles and fates of Sb in the environment.
Journal
Environmental Chemistry – CSIRO Publishing
Published: Apr 27, 2009
Keywords: brake abrasion dust, elemental ratio, microscopic image, particle size distribution, waste fly ash.