Literature DB >> 35618875

Temperature, cardiovascular mortality, and the role of hypertension and renin-angiotensin-aldosterone axis in seasonal adversity: a narrative review.

Harsh Goel1,2, Kashyap Shah3, Ashish Kumar4, John T Hippen3,5, Sunil K Nadar6.   

Abstract

Environmental temperature is now well known to have a U-shaped relationship with cardiovascular (CV) and all-cause mortality. Both heat and cold above and below an optimum temperature, respectively, are associated with adverse outcomes. However, cold in general and moderate cold specifically is predominantly responsible for much of temperature-attributable adversity. Importantly, hypertension-the most important CV risk factor-has seasonal variation such that BP is significantly higher in winter. Besides worsening BP control in established hypertensives, cold-induced BP increase also contributes to long-term BP variability among normotensive and pre-hypertensive patients, also a known CV risk factor. Disappointingly, despite the now well-stablished impact of temperature on BP and on CV mortality separately, direct linkage between seasonal BP change and CV outcomes remains preliminary. Proving or disproving this link is of immense clinical and public health importance because if seasonal BP variation contributes to seasonal adversity, this should be a modifiable risk. Mechanistically, existing evidence strongly suggests a central role of the sympathetic nervous system (SNS), and secondarily, the renin-angiotensin-aldosterone axis (RAAS) in mediating cold-induced BP increase. Though numerous other inflammatory, metabolic, and vascular perturbations likely also contribute, these may also well be secondary to cold-induced SNS/RAAS activation. This review aims to summarize the current evidence linking temperature, BP and CV outcomes. We also examine underlying mechanisms especially in regard to the SNS/RAAS axis, and highlight possible mitigation measures for clinicians.
© 2022. The Author(s), under exclusive licence to Springer Nature Limited.

Entities:  

Year:  2022        PMID: 35618875     DOI: 10.1038/s41371-022-00707-8

Source DB:  PubMed          Journal:  J Hum Hypertens        ISSN: 0950-9240            Impact factor:   3.012


  82 in total

1.  Impact of heat on mortality in 15 European cities: attributable deaths under different weather scenarios.

Authors:  M Baccini; T Kosatsky; A Analitis; H R Anderson; M D'Ovidio; B Menne; P Michelozzi; A Biggeri
Journal:  J Epidemiol Community Health       Date:  2009-10-26       Impact factor: 3.710

2.  Attributing mortality from temperature extremes: A time series analysis in Varanasi, India.

Authors:  Nidhi Singh; Alaa Mhawish; Santu Ghosh; Tirthankar Banerjee; R K Mall
Journal:  Sci Total Environ       Date:  2019-02-07       Impact factor: 7.963

3.  Estimating the cause-specific relative risks of non-optimal temperature on daily mortality: a two-part modelling approach applied to the Global Burden of Disease Study.

Authors:  Katrin G Burkart; Michael Brauer; Aleksandr Y Aravkin; William W Godwin; Simon I Hay; Jaiwei He; Vincent C Iannucci; Samantha L Larson; Stephen S Lim; Jiangmei Liu; Christopher J L Murray; Peng Zheng; Maigeng Zhou; Jeffrey D Stanaway
Journal:  Lancet       Date:  2021-08-21       Impact factor: 79.321

4.  Projections of temperature-attributable mortality in Europe: a time series analysis of 147 contiguous regions in 16 countries.

Authors:  Èrica Martínez-Solanas; Marcos Quijal-Zamorano; Hicham Achebak; Desislava Petrova; Jean-Marie Robine; François R Herrmann; Xavier Rodó; Joan Ballester
Journal:  Lancet Planet Health       Date:  2021-07

5.  Weather-related mortality: how heat, cold, and heat waves affect mortality in the United States.

Authors:  Brooke G Anderson; Michelle L Bell
Journal:  Epidemiology       Date:  2009-03       Impact factor: 4.822

6.  Seasonal variation in cause-specific mortality: are there high-risk groups? 25-year follow-up of civil servants from the first Whitehall study.

Authors:  C T van Rossum; M J Shipley; H Hemingway; D E Grobbee; J P Mackenbach; M G Marmot
Journal:  Int J Epidemiol       Date:  2001-10       Impact factor: 7.196

7.  Mortality risk attributable to high and low ambient temperature: a multicountry observational study.

Authors:  Antonio Gasparrini; Yuming Guo; Masahiro Hashizume; Eric Lavigne; Antonella Zanobetti; Joel Schwartz; Aurelio Tobias; Shilu Tong; Joacim Rocklöv; Bertil Forsberg; Michela Leone; Manuela De Sario; Michelle L Bell; Yue-Liang Leon Guo; Chang-fu Wu; Haidong Kan; Seung-Muk Yi; Micheline de Sousa Zanotti Stagliorio Coelho; Paulo Hilario Nascimento Saldiva; Yasushi Honda; Ho Kim; Ben Armstrong
Journal:  Lancet       Date:  2015-05-20       Impact factor: 79.321

8.  Global variation in the effects of ambient temperature on mortality: a systematic evaluation.

Authors:  Yuming Guo; Antonio Gasparrini; Ben Armstrong; Shanshan Li; Benjawan Tawatsupa; Aurelio Tobias; Eric Lavigne; Micheline de Sousa Zanotti Stagliorio Coelho; Michela Leone; Xiaochuan Pan; Shilu Tong; Linwei Tian; Ho Kim; Masahiro Hashizume; Yasushi Honda; Yue-Liang Leon Guo; Chang-Fu Wu; Kornwipa Punnasiri; Seung-Muk Yi; Paola Michelozzi; Paulo Hilario Nascimento Saldiva; Gail Williams
Journal:  Epidemiology       Date:  2014-11       Impact factor: 4.822

Review 9.  Effects of Air Temperature on Climate-Sensitive Mortality and Morbidity Outcomes in the Elderly; a Systematic Review and Meta-analysis of Epidemiological Evidence.

Authors:  Aditi Bunker; Jan Wildenhain; Alina Vandenbergh; Nicholas Henschke; Joacim Rocklöv; Shakoor Hajat; Rainer Sauerborn
Journal:  EBioMedicine       Date:  2016-02-23       Impact factor: 8.143

10.  Association between ambient temperature and mortality risk and burden: time series study in 272 main Chinese cities.

Authors:  Renjie Chen; Peng Yin; Lijun Wang; Cong Liu; Yue Niu; Weidong Wang; Yixuan Jiang; Yunning Liu; Jiangmei Liu; Jinlei Qi; Jinling You; Haidong Kan; Maigeng Zhou
Journal:  BMJ       Date:  2018-10-31
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