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首页> 外文期刊>International Journal of Environmental Research and Public Health >The Short-Term Effect of Ambient Temperature on Mortality in Wuhan, China: A Time-Series Study Using a Distributed Lag Non-Linear Model
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The Short-Term Effect of Ambient Temperature on Mortality in Wuhan, China: A Time-Series Study Using a Distributed Lag Non-Linear Model

机译:武汉市环境温度对死亡率的短期影响:使用分布滞后非线性模型的时间序列研究

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Less evidence concerning the association between ambient temperature and mortality is available in developing countries/regions, especially inland areas of China, and few previous studies have compared the predictive ability of different temperature indictors (minimum, mean, and maximum temperature) on mortality. We assessed the effects of temperature on daily mortality from 2003 to 2010 in Jiang’an District of Wuhan, the largest city in central China. Quasi-Poisson generalized linear models combined with both non-threshold and double-threshold distributed lag non-linear models (DLNM) were used to examine the associations between different temperature indictors and cause-specific mortality. We found a U-shaped relationship between temperature and mortality in Wuhan. Double-threshold DLNM with mean temperature performed best in predicting temperature-mortality relationship. Cold effect was delayed, whereas hot effect was acute, both of which lasted for several days. For cold effects over lag 0–21 days, a 1 °C decrease in mean temperature below the cold thresholds was associated with a 2.39% (95% CI: 1.71, 3.08) increase in non-accidental mortality, 3.65% (95% CI: 2.62, 4.69) increase in cardiovascular mortality, 3.87% (95% CI: 1.57, 6.22) increase in respiratory mortality, 3.13% (95% CI: 1.88, 4.38) increase in stroke mortality, and 21.57% (95% CI: 12.59, 31.26) increase in ischemic heart disease (IHD) mortality. For hot effects over lag 0–7 days, a 1 °C increase in mean temperature above the hot thresholds was associated with a 25.18% (95% CI: 18.74, 31.96) increase in non-accidental mortality, 34.10% (95% CI: 25.63, 43.16) increase in cardiovascular mortality, 24.27% (95% CI: 7.55, 43.59) increase in respiratory mortality, 59.1% (95% CI: 41.81, 78.5) increase in stroke mortality, and 17.00% (95% CI: 7.91, 26.87) increase in IHD mortality. This study suggested that both low and high temperature were associated with increased mortality in Wuhan, and that mean temperature had better predictive ability than minimum and maximum temperature in the association between temperature and mortality.
机译:在发展中国家/地区,尤其是中国内陆地区,关于环境温度与死亡率之间关系的证据较少,以前的研究很少比较不同温度指标(最低,平均和最高温度)对死亡率的预测能力。我们评估了温度对中国中部最大城市武汉市江安区2003年至2010年每日死亡率的影响。准泊松广义线性模型与非阈值和双阈值分布滞后非线性模型(DLNM)结合使用,以检验不同温度指标与特定病因死亡率之间的关联。我们发现武汉的温度与死亡率之间呈U型关系。平均温度的双阈值DLNM在预测温度-死亡率关系中表现最佳。寒冷的影响被延迟,而热的影响是急性的,两者都持续了几天。对于滞后0-21天的感冒影响,低于感冒阈值的平均温度降低1°C会使非意外死亡率增加2.39%(95%CI:1.71,3.08),而3.65%(95%CI :心血管疾病死亡率增加2.62、4.69,呼吸道死亡率增加3.87%(95%CI:1.57,6.22),中风死亡率增加3.13%(95%CI:1.88,4.38),以及21.57%(95%CI: 12.59,31.26)增加缺血性心脏病(IHD)死亡率。对于滞后0-7天的热效应,平均温度高于热阈值增加1°C,则非偶然死亡率增加25.18%(95%CI:18.74,31.96),34.10%(95%CI) :心血管疾病死亡率增加25.63,43.16,呼吸系统死亡率增加24.27%(95%CI:7.55,43.59),中风死亡率增加59.1%(95%CI:41.81,78.5),17.00%(95%CI: IHD死亡率增加了7.91,26.87)。这项研究表明,武汉市的低温和高温都与死亡率增加有关,在温度和死亡率之间的关系中,平均温度比最低和最高温度具有更好的预测能力。

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