Physical Instabilities of Therapeutic Monoclonal Antibodies: A Critical Review

变性(裂变材料) 单克隆抗体 化学 不稳定性 圆二色性 生物物理学 蛋白质聚集 结晶学 抗体 生物化学 物理 生物 机械 核化学 免疫学
作者
Priti Mehta,Arpit Bana,Khushboo Ashok Kumar Ramnani
出处
期刊:Current Drug Discovery Technologies [Bentham Science]
卷期号:19 (6) 被引量:5
标识
DOI:10.2174/1570163819666220624092622
摘要

Abstract: The proteinaceous nature of monoclonal antibodies (mAbs) makes them highly sensitive to various physical and chemical conditions, thus leading to instabilities that are classified as physical and chemical instabilities. In this review, we are discussing in detail the physical instability of mAbs because a large number of articles previously published solely focus on the chemical aspect of the instability with little coverage on the physical side. The physical instabilities of mAbs are classified into denaturation and aggregation (precipitation, visible and subvisible particles). The mechanism involved in their formation is discussed in the article, along with the pathways correlating the denaturation of mAb or the formation of aggregates to immunogenicity. Further equations like Gibbs-Helmholtz involved in detecting and quantifying denaturation are discussed, along with various factors causing the denaturation. Moreover, questions related to aggregation like the types of aggregates and the pathway involved in their formation are answered in this article. Factors influencing the physical stability of the mAbs by causing denaturation or formation of aggregates involving the structure of the protein, concentration of mAbs, pH of the protein and the formulations, excipients involved in the formulations, salts added to the formulations, storage temperature, light and UV radiation exposure and processing factors are mentioned in this article. Finally, the analytical approaches used for detecting and quantifying the physical instability of mAbs at all levels of structural conformation like far and near UV, infrared spectroscopy, capillary electrophoresis, LC-MS, microflow imagining, circular dichroism and peptide mapping are discussed.
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