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脊髓灰质炎病毒通过吸附于无机表面而降解。

Degradation of poliovirus by adsorption on inorganic surfaces.

作者信息

Murray J P, Laband S J

出版信息

Appl Environ Microbiol. 1979 Mar;37(3):480-6. doi: 10.1128/aem.37.3.480-486.1979.

Abstract

Alteration of the specific infectivity of 3H-labeled ribonucleic acid and 14C-protein labeled poliovirus type 1 by adsorption on inorganic surfaces is investigated by application of kinetic theory to data obtained from sequential extractions of adsorbed virus. Some surfaces, e.g., SiO2, appear to have no significant effect. On the other hand, CuO substantially decreases the specific infectivity of adsorbed preparations. Differences in kinetic plots between 3H-labeled ribonucleic acid and 14C-labeled protein suggest that the inactivation observed involves physical disruption of virions. Van der Waals interactions between solid surfaces and virus are suspected to induce spontaneous virion disassembly. Surface catalyzed disassembly in aquatic and soil environments is implicated as an important mechanism controlling enterovirus dissemination. Methods developed here to evaluate complete recovery of adsorbed virus have potenital application to other degradation studied and problems concerning virus recovery from adsorbents used in virus concentrators.

摘要

通过将动力学理论应用于从吸附病毒的连续提取中获得的数据,研究了1型脊髓灰质炎病毒吸附在无机表面上时,3H标记的核糖核酸和14C标记的蛋白质的比感染性的变化。一些表面,如二氧化硅,似乎没有显著影响。另一方面,氧化铜显著降低了吸附制剂的比感染性。3H标记的核糖核酸和14C标记的蛋白质的动力学图差异表明,观察到的失活涉及病毒粒子的物理破坏。怀疑固体表面与病毒之间的范德华相互作用会诱导病毒粒子自发解体。水生和土壤环境中的表面催化解体被认为是控制肠道病毒传播的重要机制。这里开发的评估吸附病毒完全回收率的方法有可能应用于其他降解研究以及从病毒浓缩器中使用的吸附剂回收病毒的相关问题。

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