优化用于生物医学目的的壳聚糖-三聚磷酸钠纳米粒子的离子凝胶技术合成、纯化和冷冻干燥参数。

IF 5.7 3区 生物学 Q1 BIOCHEMICAL RESEARCH METHODS
Stephany Celeste Gutiérrez-Ruíz, Hernán Cortes, Maykel González-Torres, Zainab M Almarhoon, Eda Sönmez Gürer, Javad Sharifi-Rad, Gerardo Leyva-Gómez
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引用次数: 0

摘要

背景:聚合物纳米粒子可用于伤口闭合和治疗化合物输送,以及其他生物医学应用。虽然有多种纳米粒子的获得方法,但了解适当的参数对获得更好的结果至关重要。因此,本研究旨在优化壳聚糖纳米粒子的合成、纯化和冷冻干燥参数。我们评估了搅拌速度、阴离子添加时间、溶液 pH 值、壳聚糖和三聚磷酸钠浓度等条件:结果:当三聚磷酸钠和壳聚糖的浓度为 0.1%(pH 值为 5.5),滴速为 500 rpm,滴加时间为 2 分钟时,壳聚糖纳米粒子的平均粒径为 172.8 ± 3.937 nm,PDI 为 0.166 ± 0.008,zeta 电位为 25.00 ± 0.79 mV。纳米粒子制造过程中最具代表性的因素是壳聚糖溶液的 pH 值,它使粒度和多分散指数发生了显著变化。观察到的行为归因于合成过程中三聚磷酸钠可能过量。我们添加了表面活性剂 poloxamer 188 和聚山梨醇酯 80,以评估纯化(离心或透析)过程中稳定性的改善情况。这些表面活性剂减少了纳米颗粒之间的凝聚,尤其是在纯化过程中。离心使 zeta 电位增至 40.8-56.2 mV,而透析样品的粒径更小(152-184 nm)。最后,壳聚糖纳米颗粒的冷冻干燥使用了两种冷冻保护剂--曲哈糖和蔗糖。在此过程中,这两种保护剂都能充分保护系统,而糖的浓度则取决于纯化过程:总之,我们必须考虑每种表面活性剂在配方中的优点,以选择最合适的表面活性剂。此外,有必要对负载分子进行更多的研究。同时,使用蔗糖和三卤糖可在冻干过程中提供足够的保护,即使浓度为 5%w/v。不过,必须调整重量百分比浓度,以便与透析纯化的 CS-TPP NPs 配合使用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optimize the parameters for the synthesis by the ionic gelation technique, purification, and freeze-drying of chitosan-sodium tripolyphosphate nanoparticles for biomedical purposes.

Background: Polymeric nanoparticles can be used for wound closure and therapeutic compound delivery, among other biomedical applications. Although there are several nanoparticle obtention methods, it is crucial to know the adequate parameters to achieve better results. Therefore, the objective of this study was to optimize the parameters for the synthesis, purification, and freeze-drying of chitosan nanoparticles. We evaluated the conditions of agitation speed, anion addition time, solution pH, and chitosan and sodium tripolyphosphate concentration.

Results: Chitosan nanoparticles presented an average particle size of 172.8 ± 3.937 nm, PDI of 0.166 ± 0.008, and zeta potential of 25.00 ± 0.79 mV, at the concentration of 0.1% sodium tripolyphosphate and chitosan (pH 5.5), with a dripping time of 2 min at 500 rpm. The most representative factor during nanoparticle fabrication was the pH of the chitosan solution, generating significant changes in particle size and polydispersity index. The observed behavior is attributed to the possible excess of sodium tripolyphosphate during synthesis. We added the surfactants poloxamer 188 and polysorbate 80 to evaluate the stability improvement during purification (centrifugation or dialysis). These surfactants decreased coalescence between nanoparticles, especially during purification. The centrifugation increased the zeta potential to 40.8-56.2 mV values, while the dialyzed samples led to smaller particle sizes (152-184 nm). Finally, freeze-drying of the chitosan nanoparticles proceeded using two cryoprotectants, trehalose and sucrose. Both adequately protected the system during the process, and the sugar concentration depended on the purification process.

Conclusions: In Conclusion, we must consider each surfactant's benefits in formulations for selecting the most suitable. Also, it is necessary to do more studies with the molecule to load. At the same time, the use of sucrose and trehalose generates adequate protection against the freeze-drying process, even at a 5% w/v concentration. However, adjusting the percentage concentration by weight must be made to work with the CS-TPP NPs purified by dialysis.

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来源期刊
Journal of Biological Engineering
Journal of Biological Engineering BIOCHEMICAL RESEARCH METHODS-BIOTECHNOLOGY & APPLIED MICROBIOLOGY
CiteScore
7.10
自引率
1.80%
发文量
32
审稿时长
17 weeks
期刊介绍: Biological engineering is an emerging discipline that encompasses engineering theory and practice connected to and derived from the science of biology, just as mechanical engineering and electrical engineering are rooted in physics and chemical engineering in chemistry. Topical areas include, but are not limited to: Synthetic biology and cellular design Biomolecular, cellular and tissue engineering Bioproduction and metabolic engineering Biosensors Ecological and environmental engineering Biological engineering education and the biodesign process As the official journal of the Institute of Biological Engineering, Journal of Biological Engineering provides a home for the continuum from biological information science, molecules and cells, product formation, wastes and remediation, and educational advances in curriculum content and pedagogy at the undergraduate and graduate-levels. Manuscripts should explore commonalities with other fields of application by providing some discussion of the broader context of the work and how it connects to other areas within the field.
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