The summary of the models is presented in Table 1.
Survey summary
Author . | Model . | Pollutant variables . | Health variables . |
---|---|---|---|
Pope et al. (2009) | Linear regression model | PM2.5 | Life expectancy |
Burnett et al. (2014) | Integrated exposure-response (IER) model | Indoor and outdoor air pollutants on the scale of PM2.5 | Premature death mortality |
Kumar et al. (2016) | Interpolation techniques | SO2, NO2 and SPM | Health cost |
Silva (2015) | Regression | Ambient air quality index | Premature death mortality |
Maji et al. (2017a) | Epidemiology-based exposure-response function | PM2.5 | DALYs |
Chowdhury & Dey (2016) | Non-linear power law function | PM2.5 | Mortality |
Maji et al. (2018) | Regression | PM2.5 | Mortality |
Balakrishnan et al. (2018) | Regression | PM2.5 | Premature death adjusting for DALYs |
Saini & Sharma (2019) | Integrated exposure-response (IER) | PM2.5 | Stroke, chronic obstructive pulmonary disease (COPD), lower respiratory infection (LRI) and lung cancer (LNC) |
Manojkumar & Srimurganandam (2021) | Linear regression | Particular matter (PM) | Hospital admission count for cardiovascular and respiratory problems |
Pandey et al. (2021) | Cost of illness method | Particulate matter pollution, household air pollution and ozone pollution | Premature death adjusting for DALYs |
Bhowmik et al. (2022) | Eigen perturbation | Real-time monitoring | Data analytics |
Mucchielli et al. (2020) | Descriptive and analytical statistics | Online identification of variables | In-situ perception of streaming data |
Lu et al. (2017) | SEM | SO2 and wastewater emissions | Mortality |
Wu et al. (2020) | Wavelet analysis | PM2.5 | Healthcare expenditure |
Hao & Gao (2019) | Expanded Grossman health production function | Sulphur dioxide emissions, industrial smoke dust emissions | Mortality rates |
Karambelas et al. (2018) | Linear correlation | PM2.5, O3 | Mortality rate |
Ravishankara et al. (2020) | Linear correlation | PM2.5 | Stoke, COPD, LRI and LNC |
Koul (2021) | Linear correlation | Indoor and outdoor pollution in terms of PM2.5 | Premature death adjusting for DALYs |
Ranzani et al. (2020) | Separate linear mixed models | The PM2.5 levels and black carbon levels | Bone mass |
Behera et al. (2012) | Correlation model | Groundwater pollutants | Perceived health risk |
James et al. (2020) | Regression model | PM2.5 due to cooking fuel | Ophthalmic, cardiovascular, dermatological symptoms |
Author . | Model . | Pollutant variables . | Health variables . |
---|---|---|---|
Pope et al. (2009) | Linear regression model | PM2.5 | Life expectancy |
Burnett et al. (2014) | Integrated exposure-response (IER) model | Indoor and outdoor air pollutants on the scale of PM2.5 | Premature death mortality |
Kumar et al. (2016) | Interpolation techniques | SO2, NO2 and SPM | Health cost |
Silva (2015) | Regression | Ambient air quality index | Premature death mortality |
Maji et al. (2017a) | Epidemiology-based exposure-response function | PM2.5 | DALYs |
Chowdhury & Dey (2016) | Non-linear power law function | PM2.5 | Mortality |
Maji et al. (2018) | Regression | PM2.5 | Mortality |
Balakrishnan et al. (2018) | Regression | PM2.5 | Premature death adjusting for DALYs |
Saini & Sharma (2019) | Integrated exposure-response (IER) | PM2.5 | Stroke, chronic obstructive pulmonary disease (COPD), lower respiratory infection (LRI) and lung cancer (LNC) |
Manojkumar & Srimurganandam (2021) | Linear regression | Particular matter (PM) | Hospital admission count for cardiovascular and respiratory problems |
Pandey et al. (2021) | Cost of illness method | Particulate matter pollution, household air pollution and ozone pollution | Premature death adjusting for DALYs |
Bhowmik et al. (2022) | Eigen perturbation | Real-time monitoring | Data analytics |
Mucchielli et al. (2020) | Descriptive and analytical statistics | Online identification of variables | In-situ perception of streaming data |
Lu et al. (2017) | SEM | SO2 and wastewater emissions | Mortality |
Wu et al. (2020) | Wavelet analysis | PM2.5 | Healthcare expenditure |
Hao & Gao (2019) | Expanded Grossman health production function | Sulphur dioxide emissions, industrial smoke dust emissions | Mortality rates |
Karambelas et al. (2018) | Linear correlation | PM2.5, O3 | Mortality rate |
Ravishankara et al. (2020) | Linear correlation | PM2.5 | Stoke, COPD, LRI and LNC |
Koul (2021) | Linear correlation | Indoor and outdoor pollution in terms of PM2.5 | Premature death adjusting for DALYs |
Ranzani et al. (2020) | Separate linear mixed models | The PM2.5 levels and black carbon levels | Bone mass |
Behera et al. (2012) | Correlation model | Groundwater pollutants | Perceived health risk |
James et al. (2020) | Regression model | PM2.5 due to cooking fuel | Ophthalmic, cardiovascular, dermatological symptoms |