Table 1.
Studies that were not eligible for meta-analysis.
Researcher, Year of the Publication Country |
Size of the PM Exposure Ascertained by: |
Referred Data to Calculate Premature Mortality: | Results: | Study Quality | ||||
---|---|---|---|---|---|---|---|---|
Chowdhury 2018 India [25] |
PM2.5 annual average Estimate up to 2100 by applying changes in PM2.5 from baseline period (2001–2005) derived from Coupled Model Inter-comparison Project 5 (CMIP5) models to the satellite-derived baseline PM2.5 |
Global Burden of Disease data | Time | Estimated premature deaths Annual mean for 1,000,000 population |
Good | |||
2031–2040 | 18.1 ± 4.6 | |||||||
2061–2070 | 10.5 ± 3.5 | |||||||
2091–2100 | 6.5 ± 2.6 | |||||||
Guttikunda et al., 2012 [27] India Delhi and its satellite cities—Gurgaon, Noida, Greater Noida, Faridabad, and Ghaziabad |
PM2.5 and PM10 Annual average Calculated using Atmospheric Transport Modelling System (ATMoS) |
2010 mortality data India | Estimated premature deaths for the year 2010 is between 7350–16,200 | Good | ||||
Jain et al. 2017 India [4] Holy city Varanasi |
PM2.5 Annual average Measured using Satellite-retrieved AOD |
Global Burden of Disease data | 5700 (2800; 7500) annual premature deaths were estimated due to PM2.5 (0.16% of the population) |
Fair | ||||
Buleiko et al. 2017 Czech Republic [46] |
PM10 annual average Automatic and gravimetric sampling methods |
Health Statistic Yearbook data for the country | Year | PM10 annual average (SD) Premature deaths: annual (SD) |
Good | |||
T1 (Traffic, Urban, Residential) | T2 (Traffic, Urban, Trade) | B1 (Background, Urban, Residential) | B2 (Background, Urban, Residential, Trade) | |||||
2009 | 30.13 ± 8.66 22 ± 16 |
33.19 ± 15.35 32 ± 21 |
24.43 ± 5.71 15 ± 12 |
34.52 ± 8.81 31 ± 14 |
||||
2010 | 34.33 ± 11.52 29 ± 19 |
33.84 ± 17.26 48 ± 14 |
27.00 ± 7.57 22 ± 14 |
31.43 ± 9.21 24 ± 17 |
||||
2011 | 30.90 ± 12.28 28 ± 19 |
30.33 ± 15.92 35 ± 22 |
26.97 ± 9.70 21 ± 17 |
29.58 ± 12.74 26 ± 20 |
||||
2012 | 30.32 ± 8.33 27 ± 14 |
27.98 ± 13.03 31 ± 17 |
24.15 ± 4.27 13 ± 9 |
33.30 ± 9.04 28 ± 16 |
||||
2013 | 27.29 ± 8.26 27 ± 11 |
34.87 ± 12.03 35 ± 18 |
22.48 ± 6.76 19 ± 7 |
27.13 ± 7.20 22 ± 12 |
||||
Li et al. 2018 China [34] |
PM2.5 annual mean GEOS-Chem chemical transport model by Satellite data |
Direct follow-up data | 1,765,820 people aged 65 years and older in China in 2010 had premature deaths related to PM2.5 exposure | Fair | ||||
Lu et al. 2019 China [35] |
PM2.5 annual satellite-retrieved |
Global health data exchange | For the year 2017: 962,900 | Fair | ||||
Ma et al. 2016 China [36] |
PM10 annual average Directly measured |
China statistical yearbook | 2004 to 2013, annual premature deaths attributable to China’s outdoor air pollution ranged from 350,000 to 520,000 |
Good | ||||
Nie et al. 2018 China [39] | PM2.5 hourly and daily and annually Directly measured |
China Public Health and Family Planning Statistical Yearbook | In 2014, the AFs (%) for COPD, LC, IHD, and stroke were 23% (95% CI: 12, 32%), 29% (95% CI: 11, 40%), 30% (95% CI: 21, 48%), and 46% (95% CI: 17, 57%), respectively. In 2015, with the decrease of PM2.5, the AFs had fallen to 20% (95% CI: 10, 29%), 25% (95% CI: 8, 35%), 28% (95% CI: 19, 44%), and 44% (95% CI: 15, 55%). | Good | ||||
Zhao et al. 2016 China [40] |
PM10 Directly measured daily calculated for the year |
Health statistic yearbook | Air pollutant | Disease causing premature deaths | Dose response coefficient | Fair | ||
PM10 | Respiratory disease | 0.0048 | ||||||
Cardiovascular diseases | 0.0019 | |||||||
Xie et al. 2016 China [43] |
PM2.5 Satellite derived analysis |
Global Burden of Disease data 2000–2010 |
In total 1.25 million premature deaths due to anthropogenic PM2.5 in 2010 | Fair | ||||
Wang et al. 2018 China [44] |
PM2.5 annual average Satellite derived analysis | Provincial level data and global burden of disease data | Premature deaths attributed to PM2.5 nationwide amounted to 1.27 million in total | Fair | ||||
Nawahda et al. 2013 Japan [18] |
PM7.5–10 Directly monitored by the National Institute of Environmental studies |
Japan Statistics Bureau | 2006–2009 total of 40,000 premature deaths attributed In 2009: 8347 (95%CI: 2087, 16,695) |
Good | ||||
Huang et al. 2011 China [19] Pearl River |
PM10 annual average Directly measured by Environmental monitoring center |
Health Statistic Yearbook data 5.71 × 107 |
Mean (95%CI) | Good | ||||
Acute PM10 effect | 12,786 (3449, 20,837) | |||||||
Chronic PM10 effect | 15 (4, 26) | |||||||
Segersson et al. 2017 [50] Sweden |
PM2.5 and PM10 annual mean dispersion modelling to assess annual mean exposure |
Swedish Cause of Death Register | Number of premature deaths: PM2.5: 256 PM2.5–10: 54 |
Good | ||||
Fang et al. 2013 Global [51] |
PM2.5 modelled annually Using AM3 design |
WHO data | Global estimate over 21st century annually (accounts for climate change): 100,000 95%CI: (95% CI: 66,000, 130,000) |
Good | ||||
Wang et al. 2017 Global [1] |
PM2.5 annually CMAQ modelling |
Global Burden of Disease data | PM2.5-mortalities in East Asia and South Asia increased by 21% and 85% respectively, from 866,000 and 578,000 in 1990, to 1,048,000 and 1,068,000 in 2010. PM2.5-mortalities in developed regions (i.e., Europe and high-income North America) decreased substantially by 67% and 58% respectively |
Good | ||||
Silva et al. 2016 Global [52] |
PM2.5 Annually Integrated exposure–response model |
Global Burden of Disease data | 2.23 (95% CI: 1.04; 3.33) million premature mortalities/year in 2005 | Good | ||||
Silva et al. 2016 Global [53] |
PM2.5 Annually to forecast ACCMIP models |
Global Burden of Disease data | 2030: 17,200 (95%CI: −386,000, 661,000) 2050: −1,210,000 (95%CI: −1,730,000, −835,000) 2100: −1,310,000 (95%CI: −2,040,000, −174,000) |
Good | ||||
Nawahda et al. 2012 [54] South East Asia |
PM2.5 annually CMAQ modelling |
WHO data | 2000: 237,665 (95%CI: 59, 416,475) 2005: 405,035 (95%CI: 101,259, 810,070) 2020: 313,438 (95%CI: 78,360, 626,876) |
Good | ||||
Shi et al. 2018 [57] South and South East Asia |
PM2.5 Annual GEOS-Chem chemical transport model |
Global Burden of Disease data | During 1999–2014, the estimated total average annual premature deaths mortality due to PM2.5 exposure in SSEA reached 1,447,000 (95% CI: 9,353,00l, 2,541,100) | Good |