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可调电阻脉冲传感(TRPS)技术评估在疫苗制剂中的粒度分布 - 与动态光散射的比较研究。

Assessment of Tunable Resistive Pulse Sensing (TRPS) Technology for Particle Size Distribution in Vaccine Formulations - A Comparative Study with Dynamic Light Scattering.

机构信息

Vaccine CMC Development and Supply, Analytical Sciences, Sanofi, Toronto, Ontario, M2R 3T4, Canada.

出版信息

Pharm Res. 2024 May;41(5):1021-1029. doi: 10.1007/s11095-024-03698-y. Epub 2024 Apr 22.

DOI:10.1007/s11095-024-03698-y
PMID:38649535
Abstract

PURPOSE

A comparative assessment was performed to evaluate the potential of particle sizing by an ensemble based conventional dynamic light scattering (DLS) technique and an emerging technology based on tunable resistive pulse sensing (TRPS) using particle by particle approach by evaluating three different types of vaccine formulations representing three case studies and showing the limitation of each technique, instrument variability, sensitivity, and the resolution in mixed population.

METHODS

Three types of in-house vaccine formulations- a protein antigen, an outer membrane vesicle and viral particles were simultaneously evaluated by TRPS based Exoid and two DLS instruments-Zetatrac and Zetasizer for particle size distribution, aggregates, and resolution of polydisperse species.

RESULTS

The data from first case study show the risk of possible size overestimation and size averaging in polydisperse samples in DLS measurements which can be addressed by the TRPS analysis. It also shows how TRPS may be utilized only to large size antigens due to its limited size range. The second case study highlights the difference in the sensitivities of two DLS instruments working on the same principle. The third case study show that how TRPS can better resolve the large aggregate species compare to DLS in polydisperse samples.

CONCLUSION

This analysis shows that TRPS can be used as an orthogonal technique in addition to conventional DLS based methods for more precise and in-depth characterization. Both techniques are efficient in size characterization and produce comparable results, however the choice will depend on the type of formulation and size range to be evaluated.

摘要

目的

通过评估三种不同类型的疫苗制剂(代表三个案例研究),采用基于粒子的逐个评估方法,对基于集合的常规动态光散射(DLS)技术和新兴的基于可调电阻脉冲感应(TRPS)技术的粒度分析潜力进行了比较评估,展示了每种技术的局限性、仪器变异性、灵敏度以及在多分散体系中的分辨率。

方法

采用基于 Exoid 的 TRPS 和两种 DLS 仪器(Zetatrac 和 Zetasizer),同时对三种内部疫苗制剂(一种蛋白质抗原、一种外膜囊泡和病毒颗粒)进行粒径分布、聚集体和多分散物种分辨率评估。

结果

第一项研究的数据表明,DLS 测量中多分散样品存在可能的高估和平均粒径的风险,TRPS 分析可以解决这个问题。它还展示了 TRPS 如何由于其有限的尺寸范围,只能用于大尺寸抗原。第二项研究强调了两种基于相同原理的 DLS 仪器的灵敏度差异。第三个案例研究表明,TRPS 如何在多分散样品中比 DLS 更好地解析大的聚集物种。

结论

该分析表明,TRPS 可以作为常规 DLS 方法的正交技术,用于更精确和深入的特性分析。这两种技术都能有效地进行尺寸表征,并产生可比较的结果,但是选择将取决于要评估的制剂类型和尺寸范围。

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