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首页> 外文期刊>Toxicon: An International Journal Devoted to the Exchange of Knowledge on the Poisons Derived from Animals, Plants and Microorganisms >Multiple organ dysfunction: A delayed envenomation syndrome caused by tentacle extract from the jellyfish Cyanea capillata
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Multiple organ dysfunction: A delayed envenomation syndrome caused by tentacle extract from the jellyfish Cyanea capillata

机译:多器官功能障碍:一种延缓的毒液综合症,由水母Cyanea capillata的触手提取物引起

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The delayed jellyfish envenomation syndrome (DJES) with serious multiple organ dysfunction or systemic damages, generally developed 2 h after jellyfish stings, deserves special attention for it is very meaningful to the clinical interventions. To set up a DJES model as well as to obtain more details about its process, an integrative approach, including clinical chemistry, pathology and immunohistochemistry, was conducted to simultaneously monitor the effects of tentacle extract (TE) from the jellyfish Cyanea capillata on the vital target organs (heart, lung, liver and kidney). Our results showed that the TE from C. capillata could induce diverse toxic effects on these organs, among which the liver and kidney injuries seemed to be more serious than cardiopulmonary injuries and might be the leading causes of death in rats with DJES. In summary, we have established a DJES model with multiple organ dysfunction, which could facilitate the research on its underlying mechanism as well as the development of specific prevention or therapy strategies against jellyfish envenomation. The application of this model suggested that the possible mechanism of DJES might be attributed to the synergy of cytotoxicity, vasoconstriction effect and other specific target organ toxicities of jellyfish venom. (C) 2012 Elsevier Ltd. All rights reserved.
机译:具有严重的多器官功能障碍或全身性损害的迟发性水母毒化综合征(DJES),通常在水母st伤后2小时出现,值得特别注意,因为它对临床干预非常有意义。为了建立DJES模型并获得有关其过程的更多详细信息,进行了包括临床化学,病理学和免疫组织化学在内的综合方法,以同时监测海Cy丝Cy(Canenea capillata)触手提取物(TE)对生命的影响。目标器官(心脏,肺,肝和肾)。我们的研究结果表明,毛细线虫的TE对这些器官具有多种毒性作用,其中肝肾损伤似乎比心肺损伤更为严重,并且可能是DJES大鼠死亡的主要原因。综上,我们建立了具有多种器官功能障碍的DJES模型,这可以促进其潜在机制的研究以及针对水母毒化的特定预防或治疗策略的发展。该模型的应用表明,DJES的可能机制可能归因于水母毒液的细胞毒性,血管收缩作用和其他特定靶器官毒性的协同作用。 (C)2012 Elsevier Ltd.保留所有权利。

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