Projected risk and vulnerability to heat waves for Montreal, Quebec, using Gaussian processes

Urban areas face increasing climate risks and are at the forefront of adaptation challenges. Despite the growing number of cities that are developing adaptation plans, they often fail to implement, monitor, and evaluate them. This article addresses this issue by modelling a comprehensive risk assessment that includes vulnerability using Gaussian processes. Mortality during heat waves for the City of Montreal, Quebec, is used as a case study. The vulnerability model includes sensitivity components (age and socioeconomic variables) and an adaptive capacity component (a suitable level of vegetation to decrease the urban heat island effect). Various aging and climate scenarios (SSP1-2.6, SSP2-4.5 and SSP5-8.5) are used for projections up to year 2100. SHAP values are used to show features contributions to the model. As the climate warms, Montreal will face increasing summer mortality. The city should therefore increase its vegetation cover in vulnerable neighbourhoods. Despite inherent limitations to the complexity of risk modelling, this approach facilitates the implementation of adaptation solutions and their monitoring. Greater effort should be made in the future to improve comprehensive risk modelling and more research is required to validate which framework is best in closing the gap between science and political decisions. • Mortality during heat waves in Montreal is used as a case study. • Projections for various aging and climate scenarios are included. • Gaussian processes are used to model risk and vulnerability. • SHAP values are used to show features contributions to the model. • This modelling framework fills various gaps in the literature.

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Publication Details

Journal
Sustainable Cities and Society
Published
2024-10-28
DOI
https://doi.org/10.1016/j.scs.2024.105907
Citations
5
Primary Topic
Climate Change and Health Impacts
Type
article
Field-Weighted Citation Impact
1.57
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article

Projected risk and vulnerability to heat waves for Montreal, Quebec, using Gaussian processes

Éric Lavigne, Jean-Nicolas Côté, Mickaël Germain, Elisabeth Levac
5 citations
Sustainable Cities and Society
Climate Change and Health Impacts
1.57
article

Projected risk and vulnerability to heat waves for Montreal, Quebec, using Gaussian processes

Éric Lavigne, Jean-Nicolas Côté, Mickaël Germain, Elisabeth Levac
article en
5 citations

Abstract

Urban areas face increasing climate risks and are at the forefront of adaptation challenges. Despite the growing number of cities that are developing adaptation plans, they often fail to implement, monitor, and evaluate them. This article addresses this issue by modelling a comprehensive risk assessment that includes vulnerability using Gaussian processes. Mortality during heat waves for the City of Montreal, Quebec, is used as a case study. The vulnerability model includes sensitivity components (age and socioeconomic variables) and an adaptive capacity component (a suitable level of vegetation to decrease the urban heat island effect). Various aging and climate scenarios (SSP1-2.6, SSP2-4.5 and SSP5-8.5) are used for projections up to year 2100. SHAP values are used to show features contributions to the model. As the climate warms, Montreal will face increasing summer mortality. The city should therefore increase its vegetation cover in vulnerable neighbourhoods. Despite inherent limitations to the complexity of risk modelling, this approach facilitates the implementation of adaptation solutions and their monitoring. Greater effort should be made in the future to improve comprehensive risk modelling and more research is required to validate which framework is best in closing the gap between science and political decisions. • Mortality during heat waves in Montreal is used as a case study. • Projections for various aging and climate scenarios are included. • Gaussian processes are used to model risk and vulnerability. • SHAP values are used to show features contributions to the model. • This modelling framework fills various gaps in the literature.

Sustainable Cities and SocietyVol. 116
Bishop's University (CA), Health Canada (CA), Université de Sherbrooke (CA), University of Ottawa (CA)
Climate action
Openalex Percentile: Top 17%
Climate Change and Health Impacts
1.57
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