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. 2017 Oct 28;4(4):504–513. doi: 10.1007/s40572-017-0168-6

Table 1.

Projected impacts of climate change (CC) on fine particle (PM2.5) and ozone (O3) related health effects and characteristics of studies published in 2012-2017

Region Calculated health effects Used CC projection scenario Air pollution emissions and dynamics Used CC and air pollution models Included periods Additional factors taken into account Main results Reference
Global PM2.5 related all-cause and O3 related respiratory mortality A1B Present constant GFDL, AM3 1981-2000, 2081-2100 - In 2081-2100 4% increase in PM2.5 related all-cause mortality and 0.9% in O3 related respiratory mortality compared to 1981-2000 [30]
Global and different regions PM2.5 and O3 related mortality RCP2.6, RCP4.5, RCP6.0, RCP8.5 Natural dynamic, anthropogenic constant ACCMIP model ensemble 2000, 2030, 2050, 2100 Population projection from 2010 through 2100 PM2.5 related mortality peaking in 2030 (2.4-2.6 million deaths annually and then declining to between 0.56-1.55 million deaths annually (except for RCP6.0) O3 related mortality peaking in 2050 (1.18-2.6 million deaths annually) and then declining to between 1.1-2.4 million deaths annually [31]
Global, Europe, France PM2.5 related cardiovascular (CV) and O3 related respiratory mortality Only for Europe and France (RCP4.5) Present and future (CLE, MFR) IPSL-cm5-MR, LDMz-INCA, CHIMERE 2010, 2030, 2050 Population 2030 as sensitivity analysis In 2030 in Europe PM2.5 related CV mortality decrease by 1.9% under CLE and 2.2% under MFR and in 2050 3.8% decrease under both scenarios compared to 2010. In 2030 O3 related respiratory mortality decrease by 0.2% under CLE and 0.3% under MFR compared to 2010 [29]
Europe O3 related non-accidental mortality and respiratory hospitalizations A1B, A2 Present constant MATCH-RCA3, ECHAM4, HadCM3 1961-1990, 1990-2009, 2021-2050,
2041-2060
- In 2021-2050 13.7% increase in O3 related non-accidental mortality with A2 scenario and 8.6% increase with A1B scenario compared to 1961-1990 [33]
Europe O3 and PM2.5 non-accidental mortality A1B Present and future (in accordance to RCP4.5) ECHAM5, DEHM, MATCH 2000s, 2050s, 2080s Population projection 2050, PM2.5 infiltration change in the future Climate only: in 2050s 8-11% increase and in 2080s 15-16% increase in non-accidental mortality compared to 2000s (O3 and PM2.5 combined)
Climate and emissions combined: in 2050s 36-64% and in 2080s 53-84% decrease in O3 related non-accidental mortality compared to 2000s and in 2050s 62-65% and in 2080s 78-79% decrease in PM2.5 related mortality compared to 2000s
[34]
UK O3 non-accidental mortality and morbidity A2, B2 Present and future (CLE, MFR) EMEP-WRF 2003, 2030 Population projections, +5 °C temperature increase scenario If temperature will increase by 5 °C, the O3 related non-accidental mortality will increase from 4% (no O3 threshold) to 30% (35 ppbv O3 threshold) [36]
Poland PM2.5 non-accidental mortality A1B Present constant ECHAM5-RegCM3, CAMx 1990s, 2040s, 2090s - Compared to 1990s 6% decrease in PM2.5 related non-accidental mortality in the 2040s and 7% decrease in 2090s [37]
US O3 summer-time non-accidental mortality A1B, A2, A1Fi, B1 Biogenic and evaporative dynamic, anthropogenic constant 2 global and 5 regional modelling systems 2000, 2050 Population projection 2050 In 2050 depending on model choice from 600 avoided premature deaths due to O3 to 2,500 additional premature deaths compared to 2050 [42]
US O3 related mortality and morbidity A1, B2 Present and future (EPA, 2030) GISS and CESM, WRF, CMAQ 1995-2005, 2025-2035 - In 2030s annually 37 and 420 additional excess deaths due to O3 compared to 2000s with RCP6 and 8.5 scenarios, respectively [41]
US PM2.5 and O3 related annual mortality RCP8.5 Present and future (in accordance to RCP8.5) CESM, WRF, CMAQ 2002-2004, 2057-2059 Population projection 2050 In 2050s 7,500 additional PM2.5 related and 2,100 additional O3 related premature deaths with population kept constant and 42,600 less PM2.5 related and 1,300 additional O3 related premature deaths with 2050s population [43]
US PM2.5 related annual and O3 related summer-time mortality POL4.5, POL3.7 Present constant IGSM-CAM, CAM-Chem 1980-2010, 2035-2055, 2085-2115 - In 2050 11,000 and 13,000 and in 2100 52,000 and 57,000 avoided PM2.5 and O3 related premature deaths compared to 2000, respectively for POL4.5 and POL3.7 scenario [39]
US O3 summer-time non-accidental mortality A2 Present and future (in accordance to RCP8.5) Global and regional climate and ozone models +Bayesian model 2000, 2050 - In 2050 1,212 additional O3 related premature mortalities with present emissions and 4,473 less premature mortalities with future emissions compared to 2000 [48]
94 US urban areas O3 summer-time non-accidental mortality RCP6.0 Biogenic dynamic, anthropogenic constant Spatial monotone ozone-temperature surface model 1995-2005, 2025-2035 Both 2000 and 2030 population In 2025-2035 from 7.7% (35 ppb O3 threshold) to 14.2% (75 ppb O3 threshold) increase in O3 related non-accidental mortality compared to 1995-2005 [49]
Atlanta metropolitan area O3 related ED visits A2 Present and future (OECD90) 8 different models 1999-2004, 2041-2070 - In 2041-2070 annually from 267 to 466 (depending on model) excess O3 related ED visits compared to 1999-2004 [53]
Japan PM2.5 related mortality RCP4.5 MIROC-AOGCM NICAM-Chem, high and low resolution model 2000-2003, 2030-2033 Population projection 2030 In 2030s from 63.6% increase (0 μg/m3 threshold) to 8.7% decrease (5.8 μg/m3 threshold) in PM2.5 related mortality compared to 2000s (high resolution model) [46]
Korea O3 summer-time non-accidental mortality RCP2.6, RCP4.5, RCP6.0, RCP8.5 Present and future (in accordance to RCPs) ICAMS 1996-2005, 2016-2025, 2046-2055 Current mortality trends expected to increase, temperature effects compared In 2020s from 0.0% to 0.5% increase and in 2050s from 0.2% to 0.6% increase in O3 related non-accidental mortality compared to 2000s [48]
Sydney O3 related mortality A2 Present constant CGCM, CCAM, TAPM-CMT 1996-2005, 2051-2060 - In 2050s from 27.3% (40 ppb O3 threshold) to 2.3% (0 ppb O3 threshold) increase in O3 related mortality compared to 2000s [47]