Overheating or overcooling: heat transfer in the spot to fight against the pandemic obesity

被引:4
|
作者
Manfredi, Leandro Henrique [1 ]
机构
[1] Fed Univ Fronteira Sul, Grad Program Biomed Sci, Chapeco, SC, Brazil
来源
关键词
Obesity; Cold exposure; Heat exposure; Exercise; Brown adipose tissue; Sympathetic nervous system; Heat shock protein; BROWN ADIPOSE-TISSUE; SYMPATHETIC-NERVE ACTIVITY; IMPROVES INSULIN SENSITIVITY; DIET-INDUCED THERMOGENESIS; MESSENGER-RNA EXPRESSION; SHOCK-PROTEIN EXPRESSION; SKELETAL-MUSCLE; COLD-EXPOSURE; FATTY-ACID; ENERGY-EXPENDITURE;
D O I
10.1007/s11154-020-09596-z
中图分类号
R5 [内科学];
学科分类号
1002 ; 100201 ;
摘要
The prevalence of obesity has nearly doubled worldwide over the past three and a half decades, reaching pandemic status. Obesity is associated with decreased life expectancy and with an increased risk of metabolic, cardiovascular, nervous system diseases. Hence, understanding the mechanisms involved in the onset and development of obesity is mandatory to promote planned health actions to revert this scenario. In this review, common aspects of cold exposure, a process of heat generation, and exercise, a process of heat dissipation, will be discussed as two opposite mechanisms of obesity, which can be oversimplified as caloric conservation. A common road between heat generation and dissipation is the mobilization of Free Faty Acids (FFA) and Carbohydrates (CHO). An increase in energy expenditure (immediate effect) and molecular/metabolic adaptations (chronic effect) are responses that depend on SNS activity in both conditions of heat transfer. This cycle of using and removing FFA and CHO from blood either for heat or force generation disrupt the key concept of obesity: energy accumulation. Despite efforts in making the anti-obesity pill, maybe it is time to consider that the world's population is living at thermoneutrality since temperature-controlled places and the lack of exercise are favoring caloric accumulation.
引用
收藏
页码:665 / 680
页数:16
相关论文
共 50 条
  • [41] Coupling multifunction drones with AI in the fight against the coronavirus pandemic
    Almalki, Faris A.
    Alotaibi, Abdullah A.
    Angelides, Marios C.
    COMPUTING, 2022, 104 (05) : 1033 - 1059
  • [42] Could residential air-source heat pumps exacerbate outdoor summer overheating and winter overcooling in UK 2050s climate scenarios?
    Xie, Xiaoxiong
    Luo, Zhiwen
    Grimmond, Sue
    Liu, Yiqing
    Ugalde-Loo, Carlos E.
    Bailey, Matthew T.
    Wang, Xinfang
    SUSTAINABLE CITIES AND SOCIETY, 2024, 115
  • [43] STEP TEENS Successful new study in the fight against obesity
    Weghuber, Daniel
    PADIATRIE UND PADOLOGIE, 2023, 58 (01): : 34 - 36
  • [44] Is nutritional education a good strategy to fight against overweight and obesity?
    Macias, C.
    Diaz, M.
    Pita, G.
    Basabe, B.
    Herrera, D.
    Moreno, V.
    ANNALS OF NUTRITION AND METABOLISM, 2011, 58 : 268 - 268
  • [46] Coupling multifunction drones with AI in the fight against the coronavirus pandemic
    Faris A. Almalki
    Abdullah A. Alotaibi
    Marios C. Angelides
    Computing, 2022, 104 : 1033 - 1059
  • [47] A LEGAL HISTORY OF THE FIGHT AGAINST THE COVID-19 PANDEMIC
    Alvarez Garcia, Vicente
    REVISTA GENERAL DE DERECHO ADMINISTRATIVO, 2023, (62):
  • [48] A forgotten enemy: PHS's fight against the 1918 influenza pandemic
    Gernhart, G
    PUBLIC HEALTH REPORTS, 1999, 114 (06) : 559 - 561
  • [49] PUBLIC POLICY IN MEXICO FOR THE FIGHT AGAINST OVERWEIGHT AND OBESITY IN SCHOOL CHILDREN
    Morales-Ruan, Maria del Carmen
    Jimenez Aguilar, Alejandra
    Shamah-Levy, Teresa
    Lopez Olmedo, Nancy
    Theodore, Florence
    Tolentino Mayo, Maria Lizbeth
    Moreno Saracho, Jessica
    Bonvecchio Arenas, Anabelle
    ANNALS OF NUTRITION AND METABOLISM, 2017, 71 : 787 - 787
  • [50] Challenges in the fight against the COVID-19 pandemic in university hospitals
    Medeiros, Eduardo Alexandrino Servolo
    REVISTA PAULISTA DE PEDIATRIA, 2020, 38