Gravitational change-induced alteration of the vestibular function and gene expression in the vestibular ganglion of mice

Murat Bazek, Motoya Sawa, Kazuhiro Horii, Naotoshi Nakamura, Shingo Iwami, Chia-Hsien Wu, Tsuyoshi Inoue, Fumiaki Nin, Chikara Abe
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Abstract

Gravity has profoundly influenced life on Earth, yet how organisms adapt to changes in gravity remains largely unknown. This study examines vestibular plasticity, specifically how the vestibular system responds to altered gravity. We subjected male C57BL/6J mice to hypergravity (2 G) followed by normal gravity (1 G) to analyze changes in vestibular function and gene expression. Mice showed significant vestibular dysfunction, assessed by righting reflex tests, which persisted for days but reversed at 1 G after exposure to 2 G. Gene expression analysis in the vestibular ganglion identified significant changes in 212 genes out of 49,585 due to gravitational changes. Specifically, 25 genes were upregulated under 2 G and recovered at 1 G after 2 G exposure, while one gene showed the opposite trend. Key neural function genes like Shisa3, Slc25a37, Ntn4, and Snca were involved. Our results reveal that hypergravity-induced vestibular dysfunction is reversible and highlight genes critical for adaptation.
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重力变化引起的小鼠前庭神经节前庭功能和基因表达的改变
重力对地球上的生命产生了深远的影响,但生物如何适应重力的变化在很大程度上仍是未知数。本研究探讨了前庭的可塑性,特别是前庭系统如何对重力变化做出反应。我们将雄性 C57BL/6J 小鼠置于超重力(2 G)和正常重力(1 G)环境中,分析前庭功能和基因表达的变化。小鼠表现出明显的前庭功能障碍,通过右反射测试进行评估,这种障碍持续数天,但在暴露于 2 G 后的 1 G 条件下发生逆转。前庭神经节中的基因表达分析发现,由于重力变化,49,585 个基因中有 212 个发生了显著变化。具体来说,有25个基因在2 G条件下上调,在暴露于2 G后于1 G时恢复,而有一个基因则呈现相反的趋势。Shisa3、Slc25a37、Ntn4和Snca等关键神经功能基因参与其中。我们的研究结果揭示了超重力诱导的前庭功能障碍是可逆的,并突出了对适应至关重要的基因。
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