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甲状腺激素系统干扰化学品。

Thyroid hormone system disrupting chemicals.

机构信息

Charité - Universitätsmedizin Berlin, Corporate Member of Freie Universität Berlin and Humboldt-Universität zu Berlin, Institut für Experimentelle Endokrinologie, Hessische Strasse 3-4, 10115, Berlin, Germany.

Charité - Universitätsmedizin Berlin, Corporate Member of Freie Universität Berlin and Humboldt-Universität zu Berlin, Institut für Experimentelle Endokrinologie, Hessische Strasse 3-4, 10115, Berlin, Germany.

出版信息

Best Pract Res Clin Endocrinol Metab. 2021 Sep;35(5):101562. doi: 10.1016/j.beem.2021.101562. Epub 2021 Jul 7.

Abstract

The thyroid hormone system is a main target of endocrine disruptor compounds (EDC) at all levels of its intricately fine-tuned feedback regulation, synthesis, distribution, metabolism and action of the 'prohormone' thyroxine and its active metabolites. Apart from classical antithyroid effects of EDC on the gland, the majority of known and suspected effects occurs at the pre-receptor control of T3 ligand availability to T3 receptors exerting ligand modulated thyroid hormone action. Tissue-, organ- and cell-specific expression and function of thyroid hormone transporters, deiodinases, metabolizing enzymes and T3-receptor forms, all integral components of the system, may mediate adverse EDC effects. Established evidence from nutritional, pharmacological and molecular genetic studies clearly support the functional, biological, and clinical relevance of these targets. Iodine-containing thyroid hormones and the organization of this system are highly conserved during evolution from primitive aquatic life forms, amphibia, birds throughout all vertebrates including humans. Mechanistic studies from various animal experimental models strongly support cause-effect relationships upon EDC exposure, hazards and adverse effects of EDC across various species. Retrospective case-control, cohort and population studies linking EDC exposure with epidemiological data on thyroid hormone-related (dys-)functions provide clear evidence that human development, especially of the fetal and neonatal brain, growth, differentiation and metabolic processes in adult and aging humans are at risk for adverse EDC effects. Considering that more than half of the world population still lives on inadequate iodine supply, the additional ubiquitous exposure to EDC and their mixtures is an additional threat for the essential thyroid hormone system, the health of the human population and their future progenies, animal life forms and our global environment.

摘要

甲状腺激素系统是内分泌干扰化合物(EDC)的主要靶标,在其精细调节的反馈调节、合成、分布、代谢和“前激素”甲状腺素及其活性代谢物的作用的各个层次上都是如此。除了 EDC 对腺体的经典抗甲状腺作用外,大多数已知和可疑的作用发生在 T3 配体对 T3 受体的预受体控制,发挥配体调节的甲状腺激素作用。甲状腺激素转运蛋白、脱碘酶、代谢酶和 T3 受体形式的组织、器官和细胞特异性表达和功能,都是该系统的组成部分,可能介导 EDC 的不良影响。营养、药理学和分子遗传学研究的既定证据清楚地支持这些靶标的功能、生物学和临床相关性。含碘甲状腺激素和该系统的组织在从原始水生生命形式、两栖动物、鸟类到包括人类在内的所有脊椎动物中的进化过程中高度保守。来自各种动物实验模型的机制研究强烈支持 EDC 暴露、危害和各种物种中 EDC 的不良影响之间的因果关系。将 EDC 暴露与甲状腺激素相关(功能障碍)的流行病学数据联系起来的回顾性病例对照、队列和人群研究提供了明确的证据,表明人类的发育,特别是胎儿和新生儿大脑、生长、分化和成年和衰老过程中的代谢过程在人类中存在发生 EDC 不良影响的风险。考虑到世界上一半以上的人口仍然生活在碘供应不足的情况下,额外的普遍暴露于 EDC 及其混合物对基本的甲状腺激素系统、人类的健康及其未来的后代、动物生命形式和我们的全球环境构成了额外的威胁。

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