The ratio of concentration of organic carbon and elemental carbon bound to particulate matter in ambient air: a global systematic review and meta-analysis

Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM was observed in 3.92-5.93; PM in 1.08-3.08; PM , 2.08-4.08; PM in 2.70-4.70 and TSP in 2.66-4.66. The rank order of areas based on the pooled concentration of OC bound to...

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Published in:International journal of environmental health research pp. 1 - 20
Main Authors: Fakhri, Yadolah, Sarafraz, Mansour, Javid, Allahbakhsh, Moradi, Mahboobeh, Mehri, Fereshteh, Nasiri, Rasul, Saadatmandsepideh, Sepideh
Format: Journal Article
Language:English
Published: England 10-09-2024
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Abstract Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM was observed in 3.92-5.93; PM in 1.08-3.08; PM , 2.08-4.08; PM in 2.70-4.70 and TSP in 2.66-4.66. The rank order of areas based on the pooled concentration of OC bound to PM was traffic (17.893 µg/m ) > industrial (10.58 µg/m ) > urban (7.696 µg/m ) > rural (4.08 µg/m ). The rank order of areas based on the pooled (mean) concentration of EC in PM was traffic (17.893 µg/m ) > industrial (2.65 µg/m ) > Urban (1.48 µg/m ) > rural (1.06 µg/m ). The pooled concentrations of OC and EC bound to PM in traffic areas were higher than in other areas. Therefore, it is recommended that monitoring and effectively reducing concentration plans are carried out, especially in traffic areas.
AbstractList Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM0.1 was observed in 3.92-5.93; PM1 in 1.08-3.08; PM2.5, 2.08-4.08; PM10 in 2.70-4.70 and TSP in 2.66-4.66. The rank order of areas based on the pooled concentration of OC bound to PM2.5 was traffic (17.893 µg/m3) > industrial (10.58 µg/m3) > urban (7.696 µg/m3) > rural (4.08 µg/m3). The rank order of areas based on the pooled (mean) concentration of EC in PM2.5 was traffic (17.893 µg/m3) > industrial (2.65 µg/m3) > Urban (1.48 µg/m3) > rural (1.06 µg/m3). The pooled concentrations of OC and EC bound to PM2.5 in traffic areas were higher than in other areas. Therefore, it is recommended that monitoring and effectively reducing concentration plans are carried out, especially in traffic areas.Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM0.1 was observed in 3.92-5.93; PM1 in 1.08-3.08; PM2.5, 2.08-4.08; PM10 in 2.70-4.70 and TSP in 2.66-4.66. The rank order of areas based on the pooled concentration of OC bound to PM2.5 was traffic (17.893 µg/m3) > industrial (10.58 µg/m3) > urban (7.696 µg/m3) > rural (4.08 µg/m3). The rank order of areas based on the pooled (mean) concentration of EC in PM2.5 was traffic (17.893 µg/m3) > industrial (2.65 µg/m3) > Urban (1.48 µg/m3) > rural (1.06 µg/m3). The pooled concentrations of OC and EC bound to PM2.5 in traffic areas were higher than in other areas. Therefore, it is recommended that monitoring and effectively reducing concentration plans are carried out, especially in traffic areas.
Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM was observed in 3.92-5.93; PM in 1.08-3.08; PM , 2.08-4.08; PM in 2.70-4.70 and TSP in 2.66-4.66. The rank order of areas based on the pooled concentration of OC bound to PM was traffic (17.893 µg/m ) > industrial (10.58 µg/m ) > urban (7.696 µg/m ) > rural (4.08 µg/m ). The rank order of areas based on the pooled (mean) concentration of EC in PM was traffic (17.893 µg/m ) > industrial (2.65 µg/m ) > Urban (1.48 µg/m ) > rural (1.06 µg/m ). The pooled concentrations of OC and EC bound to PM in traffic areas were higher than in other areas. Therefore, it is recommended that monitoring and effectively reducing concentration plans are carried out, especially in traffic areas.
Author Fakhri, Yadolah
Saadatmandsepideh, Sepideh
Javid, Allahbakhsh
Moradi, Mahboobeh
Mehri, Fereshteh
Sarafraz, Mansour
Nasiri, Rasul
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  organization: Food Health Research Center, Hormozgan University of Medical Sciences, Bandar Abbas, Iran
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  givenname: Mansour
  surname: Sarafraz
  fullname: Sarafraz, Mansour
  organization: Environmental and Occupational Health Research Center, Shahroud University of Medical Sciences, Shahroud, Iran
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  surname: Javid
  fullname: Javid, Allahbakhsh
  organization: Department of Environmental Health Engineering, School of Public Health, Tehran University of Medical Sciences, Tehran, Iran
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  givenname: Mahboobeh
  surname: Moradi
  fullname: Moradi, Mahboobeh
  organization: Department of Environmental Health Engineering, School of Public Health, Shahid Beheshti University of Medical Sciences, Tehran, Iran
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  givenname: Fereshteh
  surname: Mehri
  fullname: Mehri, Fereshteh
  organization: Nutrition Health Research Center, Center of Excellence for Occupational Health, Research Center for Health Sciences, School of Public Health, Hamadan University of Medical Sciences, Hamadan, Iran
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  givenname: Rasul
  surname: Nasiri
  fullname: Nasiri, Rasul
  organization: Air Pollution Research Center, Iran University of Medical Sciences, Tehran, Iran
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  givenname: Sepideh
  surname: Saadatmandsepideh
  fullname: Saadatmandsepideh, Sepideh
  organization: Food Health Research Center, Hormozgan University of Medical Sciences, Bandar Abbas, Iran
BackLink https://www.ncbi.nlm.nih.gov/pubmed/39254320$$D View this record in MEDLINE/PubMed
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Snippet Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM was observed in 3.92-5.93; PM...
Four hundred and sixty-six references with 625 data reports were included in our study. The high frequency of ratio OC/EC for PM0.1 was observed in 3.92-5.93;...
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Title The ratio of concentration of organic carbon and elemental carbon bound to particulate matter in ambient air: a global systematic review and meta-analysis
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