Two-Dimensional Liquid Chromatography (2D-LC) for Biopharmaceuticals

Samanidou Vf
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Abstract

Biopharmaceuticals, such as monoclonal antibodies (mAbs), interferons/cytokines, vaccines etc contribute progressively more to clinical practice. They are complex macromolecules produced from living cells by means of biotechnology, usually produced to treat lifethreatening diseases, such as tumors, autoimmune diseases, diabetes, etc. Compared to traditional drugs, biopharmaceuticals are much larger in size, which ranges from 2,000 to 2,000,000 Daltons, while traditional pharmaceuticals are typically within the range 100-1500 Daltons. Another significant difference between them is the number of active sites (functional groups) in biopharmaceuticals, which is significantly higher usually 10-2000. All these characteristics make their investigation of great analytical challenge. Due to their complexity, biopharmaceuticals require multiple modes of chromatographic separations. Moreover the fact that exact copies of biopharmaceuticals cannot be produced; this results to the production of biosimilars that refer to drugs with similar physicochemical characteristics, as well as efficacy and safety with the originators. The ongoing development in biosimilar manufacturing has led to the demand for complementary analytical methods in order to achieve the efficient comparison with originators. At present there are more than 200 approved biopharmaceuticals in the market and this is predicted to increase. Although monoclonal antibodies are the prevailing biopharmaceuticals, novel drugs like antibody drug conjugates (ADCs) have become of particular oncological interest. These are capable to deliver the chemotherapeutic cytotoxic agent directly to the tumor site antigen. By this approach the risk of damaging healthy tissues is intensely reduced. Thereby they take advantage of the benefits of large molecule specificity with small molecule toxicity [1-5].
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生物制药的二维液相色谱(2D-LC)
生物制药,如单克隆抗体、干扰素/细胞因子、疫苗等,对临床实践的贡献越来越大。它们是通过生物技术从活细胞中产生的复杂大分子,通常用于治疗危及生命的疾病,如肿瘤、自身免疫性疾病、糖尿病等。与传统药物相比,生物制药的尺寸要大得多,在2000到200万道尔顿之间,而传统药物通常在100到1500道尔顿之间。它们之间的另一个显著区别是生物制药中的活性位点(官能团)数量,通常为10-2000。所有这些特点使他们的研究具有很大的分析挑战。由于其复杂性,生物制药需要多种模式的色谱分离。此外,生物药品的精确复制品无法生产;这导致了生物仿制药的生产,这些仿制药是指具有与原研药相似的物理化学特性,以及功效和安全性的药物。生物仿制药生产的持续发展导致了对互补分析方法的需求,以实现与原研药的有效比较。目前,市场上有超过200种获批的生物药品,预计这一数字还会增加。虽然单克隆抗体是主流的生物制药,但像抗体药物偶联物(adc)这样的新型药物已经成为肿瘤学研究的重点。它们能够将化疗细胞毒性药物直接递送到肿瘤部位抗原。通过这种方法,损伤健康组织的风险大大降低。因此,它们利用了大分子特异性和小分子毒性的优势[1-5]。
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