Gonadal hormone deprivation regulates response to tibolone in neurodegenerative pathways

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Andrew J. McGovern , Maria Angeles Arevalo , Sergio Ciordia , Luis Miguel Garcia-Segura , George E. Barreto
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Abstract

Gonadal hormone deprivation (GHD) and decline such as menopause and bilateral oophorectomy are associated with an increased risk of neurodegeneration. Yet, hormone therapies (HTs) show varying efficacy, influenced by factors such as sex, drug type, and timing of treatment relative to hormone decline. We hypothesize that the molecular environment of the brain undergoes a transition following GHD, impacting the effectiveness of HTs. Using a GHD model in mice treated with Tibolone, we conducted proteomic analysis and identified a reprogrammed response to Tibolone, a compound that stimulates estrogenic, progestogenic, and androgenic pathways. Through a comprehensive network pharmacological workflow, we identified a reprogrammed response to Tibolone, particularly within "Pathways of Neurodegeneration", as well as interconnected pathways including "cellular respiration", "carbon metabolism", and "cellular homeostasis". Analysis revealed 23 proteins whose Tibolone response depended on GHD and/or sex, implicating critical processes like oxidative phosphorylation and calcium signalling. Our findings suggest the therapeutic efficacy of HTs may depend on these variables, suggesting a need for greater precision medicine considerations whilst highlighting the need to uncover underlying mechanisms.

性腺激素剥夺调节神经退行性途径对替勃龙的反应
性腺激素剥夺(GHD)和衰退(如绝经和双侧输卵管切除术)与神经变性风险增加有关。然而,激素疗法(HTs)显示出不同的疗效,受性别、药物类型和相对于激素下降的治疗时机等因素的影响。我们假设,GHD 后大脑的分子环境会发生转变,从而影响激素疗法的效果。使用替勃龙治疗小鼠的 GHD 模型,我们进行了蛋白质组分析,并确定了对替勃龙(一种刺激雌激素、孕激素和雄激素通路的化合物)的重编程反应。通过全面的网络药理学工作流程,我们确定了对替勃龙的重编程反应,特别是在 "神经变性途径 "以及相互关联的途径中,包括 "细胞呼吸"、"碳代谢 "和 "细胞稳态"。分析发现,有23种蛋白质的替勃龙反应取决于GHD和/或性别,其中涉及氧化磷酸化和钙信号传导等关键过程。我们的研究结果表明,促肾上腺皮质激素的疗效可能取决于这些变量,这表明需要更多的精准医疗考虑,同时强调了揭示潜在机制的必要性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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