微流体装置中以气体微泡为软模板的蛋白质结晶

IF 3.2 3区 工程技术 Q2 CHEMISTRY, PHYSICAL
Wenqing Tian, Oladayo Ogunyinka, Charlie Oretti, H. C. Hemaka Bandulasena, Chris Rielly and Huaiyu Yang
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引用次数: 0

摘要

溶菌酶结晶首次在微流体装置中在不同气体(氦气、氮气、氧气和二氧化碳微气泡)的存在下进行。研究发现,吸附在气液界面上的蛋白质稳定了水溶液中的气泡,并且气泡的稳定性随着溶液中蛋白质浓度的增加而增加。蛋白质在气液界面上的非均匀成核比在毛细管玻璃壁上的成核更可取,从而限制了毛细管内的污垢。晶体的表面是弯曲的,晶体在溶液中漂浮着气泡。溶菌酶晶体的群体密度随着四种气体溶解度的增加而增加。讨论了蛋白质在气液界面、气固界面和液固界面上结晶的三个阶段。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Protein crystallisation with gas microbubbles as soft template in a microfluidic device

Protein crystallisation with gas microbubbles as soft template in a microfluidic device

Lysozyme crystallisation was first-time performed in a microfluidic device in the presence of different gases: helium, nitrogen, oxygen, and carbon dioxide microbubbles. It was found that protein adsorbed on the gas–liquid interface stabilised the gas bubbles in the aqueous solution, and bubble stability increased with the protein concentration in the solution. The heterogeneous nucleation of protein on the gas–liquid interface was preferred than on the capillary glass wall, limiting the fouling inside the capillary. The crystals formed with curved surfaces, and the crystals floated in the solution with gas bubbles. The population density of lysozyme crystals increased with an increase in the solubility of four types of gases. Three stages of the protein crystallisation on the gas–liquid, gas–solid and liquid–solid interfaces were discussed.

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来源期刊
Molecular Systems Design & Engineering
Molecular Systems Design & Engineering Engineering-Biomedical Engineering
CiteScore
6.40
自引率
2.80%
发文量
144
期刊介绍: Molecular Systems Design & Engineering provides a hub for cutting-edge research into how understanding of molecular properties, behaviour and interactions can be used to design and assemble better materials, systems, and processes to achieve specific functions. These may have applications of technological significance and help address global challenges.
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