Oseltamivir phosphate interaction with model membranes

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-01-09 DOI:10.1016/j.bbamem.2024.184273
Adriána Čelková , Alexander Búcsi , Mária Klacsová , Tomáš Fazekaš , Juan Carlos Martínez , Daniela Uhríková
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Abstract

Oseltamivir belongs to the neuraminidase inhibitors, developed against the influenza virus, and registered under the trademark Tamiflu. Despite its long-term acquaintance, there is limited information in the literature about its physicochemical and structural properties in a lipid-water system. We present an experimentally determined partition coefficient with structural information on the interaction of oseltamivir with the model membrane, its possible location, and its effect on the membrane thermodynamics. The hydrophobic part of the lipid bilayer is affected to a moderate extent, which was proved by slight changes in thermal and structural properties. Hereby, interaction of oseltamivir with the phospholipid bilayer induces concentration dependent decrease of lateral pressure in the bilayer acyl chain region. Oseltamivir charges the bilayer surface positively, which results in the zeta potential increase and changes in anisotropic properties studied by the polarised light microscopy. At the highest oseltamivir concentrations studied, the multilamellar structure is extensively disturbed, likely due to electrostatic repulsion between the adjacent bilayers.

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磷酸奥司他韦与模型膜的相互作用
奥司他韦属于神经氨酸酶抑制剂,是针对流感病毒开发的,注册商标为 "特敏福"。尽管奥司他韦已被人们长期熟知,但有关其在脂水体系中的物理化学和结构特性的文献资料却十分有限。我们介绍了实验测定的分配系数,以及奥司他韦与模型膜相互作用的结构信息、可能的位置及其对膜热力学的影响。脂质双分子层的疏水部分受到了一定程度的影响,这一点通过热和结构特性的轻微变化得到了证明。因此,奥司他韦与磷脂双分子层的相互作用导致双分子层酰基链区域的横向压力随浓度而降低。奥司他韦对双分子层表面产生正电荷,从而导致zeta电位升高,偏振光显微镜研究的各向异性也随之发生变化。在所研究的最高奥司他韦浓度下,多胶束结构受到广泛干扰,这可能是由于相邻双分子层之间存在静电排斥力。
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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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