表达3型脱碘酶的5 -羟色胺能区、化学感觉区和感觉神经节与Dio3Cre驱动因子相关联。

IF 3.8 3区 医学 Q2 ENDOCRINOLOGY & METABOLISM
Ye Liu, Lily Ng, Chengyu Liu, Douglas Forrest
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引用次数: 0

摘要

甲状腺激素(三碘甲状腺原氨酸,T3)促进神经发育,但受到严格控制,因为无限制地暴露于T3会损害大脑和感觉功能。由Dio3编码的甲状腺激素失活3型脱碘酶,严重限制T3信号传导并控制多种神经功能。因此,了解T3作用的细胞基础需要鉴定表达dio3的细胞类型,但由于在神经系统的复杂性中低水平、瞬时表达,这是困难的。在这里,我们获得了一个敲入Dio3Cre驱动程序,可以敏感地标记雄性和雌性小鼠中表达Dio3Cre的细胞。在这项解剖研究中,我们在未成熟的杏仁核和其他与情绪和动机相关的大脑区域,以及影响许多行为和生理系统的血清素能中叶核中发现了Dio3的表达。值得注意的是,在心室周围器官中的表达,包括化学感觉皮层下器官和血管终层器官,表明在循环中缺乏血脑屏障和直接感觉信号因子的中心进行调节。三叉神经节、背根神经节、耳蜗前庭神经节和其他感觉神经节的表达突出了对感觉通路的贡献。尽管在成熟过程中Dio3的表达会下降,但条件Dio3CreERt2驱动显示,成年大脑中具有t3诱导表达的神经元表明其具有持续的稳态功能。这些Cre驱动因素表明,在行为、化学感觉和感觉系统中,具有控制T3信号的策略定位的神经元群。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Serotonergic and Chemosensory Brain Areas and Sensory Ganglia Expressing Type 3 Deiodinase Mapped With Dio3Cre drivers.

Thyroid hormone (triiodothyronine, T3) promotes neurodevelopment but under strict control because unconstrained exposure to T3 impairs brain and sensory functions. Thyroid hormone-inactivating type 3 deiodinase, encoded by Dio3, critically limits T3 signaling and controls diverse neural functions. Accordingly, understanding the cellular basis of T3 action requires identification of Dio3-expressing cell types but this is difficult because of low level, transient expression within the complexity of the nervous system. Here, we derived a knock-in Dio3Cre driver that sensitively labels Dio3-expressing cells in male and female mice. In this anatomical study, we identified Dio3 expression in the immature amygdala and other brain regions associated with emotion and motivation, and in serotonergic raphe nuclei, which influence many behavioral and physiological systems. Notably, expression in circumventricular organs, including the chemosensory subfornical organ and organum vasculosum laminae terminalis, suggested regulation of centers that lack a blood-brain barrier and directly sense signaling factors in the circulation. Expression in trigeminal, dorsal root, cochleovestibular, and other sensory ganglia highlighted contributions to sensory pathways. Although Dio3 expression declines during maturation, a conditional Dio3CreERt2 driver revealed neurons with T3-inducible expression in the adult brain, suggesting ongoing homeostatic functions. These Cre drivers indicate strategically located neuronal groups for control of T3 signaling in behavioral, chemosensory and sensory systems.

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来源期刊
Endocrinology
Endocrinology 医学-内分泌学与代谢
CiteScore
8.10
自引率
4.20%
发文量
195
审稿时长
2-3 weeks
期刊介绍: The mission of Endocrinology is to be the authoritative source of emerging hormone science and to disseminate that new knowledge to scientists, clinicians, and the public in a way that will enable "hormone science to health." Endocrinology welcomes the submission of original research investigating endocrine systems and diseases at all levels of biological organization, incorporating molecular mechanistic studies, such as hormone-receptor interactions, in all areas of endocrinology, as well as cross-disciplinary and integrative studies. The editors of Endocrinology encourage the submission of research in emerging areas not traditionally recognized as endocrinology or metabolism in addition to the following traditionally recognized fields: Adrenal; Bone Health and Osteoporosis; Cardiovascular Endocrinology; Diabetes; Endocrine-Disrupting Chemicals; Endocrine Neoplasia and Cancer; Growth; Neuroendocrinology; Nuclear Receptors and Their Ligands; Obesity; Reproductive Endocrinology; Signaling Pathways; and Thyroid.
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