Extreme Precipitation Mortality Prediction Model

Quantifies Future Excess Deaths

A prediction model integrating climate scenarios and socioeconomic pathways to project spatially resolved excess deaths.

Ban, Jie · Lu, Kailai · Liu, Yuanyuan · Zang, Jiawei · Zhou, Zhen · Zhang, Can · Huang, Jianbin · Chen, Yidan · Xuejie, Gao · Xu, Ying · Wang, Can · Cai, Wenjia · Gong, Peng · Luo, Yong · Li, Tiantian

The Lancet Planetary Health 2024

Specifications

Accidental mortality risk increase (%)
{'zh': '13.0', 'en': '13.0'} %
Annual average excess deaths (accidental)
{'zh': '2644', 'en': '2644'}
Circulatory disease mortality risk increase (%)
{'zh': '4.3', 'en': '4.3'} %
Respiratory disease mortality risk increase (%)
{'zh': '6.8', 'en': '6.8'} %
Increase in excess deaths by 2030s (RCP2.6-SSP2-S2)
{'zh': '1244', 'en': '1244'}

Advantages

Nationwide county-level coverage

The study includes 280 Chinese counties across different climate zones, providing high-spatial-resolution estimates of excess deaths, whereas previous studies were often limited to single cities or regions.

Future scenario projections

The model integrates three RCP emission scenarios and three SSP population scenarios to project excess deaths up to the 2090s, supporting long-term planning.

Disentangles climate and population contributions

The study quantifies the contributions of climate and population factors to changes in future excess deaths across climate zones, helping identify key drivers and target interventions.

Applications