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   <ref-type name="Journal Article">17</ref-type>
   <contributors>
    <authors>
     <author>Yang Shi</author>
     <author>Zeqi Sun</author>
     <author>Yongchao Chen</author>
     <author>Yanli Xie</author>
     <author>Chen Chen</author>
     <author>Han Lou</author>
     <author>Jan Mohammad Omar</author>
     <author>Lei Wang</author>
     <author>Ling Liu</author>
     <author>Heng Liu</author>
     <author>Limin Zhao</author>
     <author>Henghui Xu</author>
     <author>Xiaohan Li</author>
     <author>Run Xu</author>
     <author>Zhouxiu Chen</author>
     <author>Khuzin, D.R.</author>
     <author>Yong Zhang</author>
     <author>Xin Liu</author>
    </authors>
   </contributors>
   <titles>
    <title>ZNFX1 suppresses apoptosis-associated mRNA stability in cardiomyocyte to protect against myocardial infarction</title>
   </titles>
   <keywords>
    <keyword>ZNFX1</keyword>
    <keyword>apoptosis</keyword>
    <keyword>mRNA stability</keyword>
    <keyword>helicase activity</keyword>
    <keyword>myocardial infarction</keyword>
    <keyword>Scopus</keyword>
    <keyword>Web of Science</keyword>
   </keywords>
   <dates>
    <year>2025</year>
    <pub-dates>
     <date>2026-05-22</date>
    </pub-dates>
   </dates>
   <doi>10.1016/j.redox.2025.103706</doi>
   <journal>REDOX BIOLOGY</journal>
   <abstract>Cardiovascular diseases remain a growing global health burden, with myocardial infarction (MI) persisting as the&#13;
leading cause of cardiovascular mortality worldwide. Zinc finger NFX1-type containing 1 (ZNFX1), an RNA&#13;
helicase family member, remains relatively understudied in molecular biology and its role in cardiovascular&#13;
diseases remains unclear. This study aims to explore the involvement of ZNFX1 in MI and uncover its mechanisms. This research found ZNFX1 was decreased in MI myocardium and hypoxia-treated cardiomyocyte.&#13;
Overexpression of ZNFX1 significantly attenuated myocardial dysfunction, reduced infarct size, inhibited&#13;
collagen deposition and alleviated cardiac hypertrophy which was ascribed to MI in mice, whereas knockdown of&#13;
ZNFX1 produced the opposite effects. Mechanistically, RNA-seq identified apoptosis as a possible regulated&#13;
pathway of ZNFX1, overexpression of ZNFX1 repressed the cardiomyocyte apoptosis that gives rise to MI while&#13;
knockdown of ZNFX1 deteriorated it. Given the structural similarity between ZNFX1 and UPF1 that confers RNA&#13;
decay functionality, an in-depth investigation is needed to understand the collective impact of ZNFX1-mediated&#13;
RNA decay on the process of apoptosis. Here, we report that ZNFX1 plays a protective role in MI by degrading&#13;
mRNA of apoptosis-related genes, which possess highly structured 3′UTRs. Collectively, this study provides a&#13;
novel insight into the regulatory mechanisms of programmed cell death, potentially uncovering new targets for&#13;
therapeutic intervention in diseases where apoptosis is a critical factor.</abstract>
   <urls>
    <web-urls>
     <url>https://repo.bashgmu.ru/publication/5398</url>
    </web-urls>
    <pdf-urls>
     <url>https://repo.bashgmu.ru/files/5592</url>
    </pdf-urls>
   </urls>
  </record>
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