Venkatesh Natarajan, Neil Soice, Johanna Mullen, David Bull
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The selected molecule fit this mold and was manufactured in a low-capital micro-footprint suite attached to an existing therapeutic production facility. Use of a hybrid process within an already operating facility required less capital and minimized complexity. To enable this hybrid CM process, an established fed-batch process was converted to a perfusion process with continuous harvest. Development efforts included both process changes and the generation of a novel cell line adapted to long-term perfusion. Chromatography resins were updated, and purification processes adapted to handle variable inputs due to the fluctuations in harvest titer from the lengthy production process. A novel automated single-use (SU) viral inactivation (VI) skid was introduced, which entailed the development of a robust pH verification and alarm system, along with procedures for product isolation to allow discard of specific cycles. The CM process demonstrated consistent performance, meaning it met predefined performance criteria (including product quality attributes, or PQAs) when operated within established process parameters and manufactured according to applicable procedures. Using a 75% reduction in scale, it resulted in a five-fold reduction in process media and buffer usage, a fifteen-fold increase in mass per thaw, and an overall process productivity increase of 45-fold (as measured by grams drug substance per liter per day.) The hybrid CM process also enabled increased material demand to be met with no change in cost of goods manufactured or plant capacity, due to the repurposing of existing facility space and the flexible duration of the hybrid CM harvest. 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引用次数: 0
摘要
制造技术的进步与新型生物治疗方法效力的提高共同创造了一个外部环境,使持续制造(CM)能够满足日益增长的需求。安进公司已成功为一项商业生命周期计划实施了混合 CM 工艺。在该工艺中,生物反应器、收获、捕获柱和病毒灭活/深度过滤单元操作被集成在一个自动化的连续模块中,而其余下游单元操作则以独立的批处理模式进行。CM 操作特别适用于所谓的 "高混合、低产量 "生产厂,在这种生产厂中,各种分子的产量相对较低。被选中的分子就符合这种模式,并在现有治疗生产设施的一个低资本微型厂房中进行生产。在一个已在运行的工厂内使用混合工艺,所需的资金更少,复杂性也降到了最低。为实现这种混合 CM 工艺,已建立的喂料批次工艺被转换为连续收获的灌注工艺。开发工作包括改变工艺和培育适应长期灌流的新型细胞系。对色谱树脂进行了更新,并对纯化工艺进行了调整,以处理因长期生产过程中收获滴度波动而导致的输入量变化。引入了新型自动化一次性使用(SU)病毒灭活(VI)橇,这就需要开发一个强大的 pH 值验证和报警系统,以及产品分离程序,以便废弃特定的循环。CM 工艺表现出了稳定的性能,这意味着在既定的工艺参数内运行并按照适用的程序生产时,它符合预定的性能标准(包括产品质量属性或 PQA)。混合 CM 工艺的规模缩小了 75%,使工艺介质和缓冲液的使用量减少了五倍,每次解冻的质量增加了 15 倍,总体工艺生产率提高了 45 倍(按每天每升药物克数计算)。由于对现有设施空间的重新利用和混合 CM 收获期的灵活持续,混合 CM 工艺还能在不改变生产成本或工厂产能的情况下满足增加的材料需求。总之,混合 CM 平台的成功为降低工业成本和提高工艺效率提供了一个令人兴奋的机会。
GMP implementation of a hybrid continuous manufacturing process for a recombinant non-mAb protein—A case study
Advances in manufacturing technology coupled with the increased potency of new biotherapeutic modalities have created an external environment where continuous manufacturing (CM) can address a growing need. Amgen has successfully implemented a hybrid CM process for a commercial lifecycle program. In this process, the bioreactor, harvest, capture column, and viral inactivation/depth filtration unit operations were integrated together in an automated, continuous module, while the remaining downstream unit operations took place in stand-alone batch mode. CM operations are particularly suited for so-called “high mix, low volume” manufacturing plants, where a variety of molecules are manufactured in relatively low volumes. The selected molecule fit this mold and was manufactured in a low-capital micro-footprint suite attached to an existing therapeutic production facility. Use of a hybrid process within an already operating facility required less capital and minimized complexity. To enable this hybrid CM process, an established fed-batch process was converted to a perfusion process with continuous harvest. Development efforts included both process changes and the generation of a novel cell line adapted to long-term perfusion. Chromatography resins were updated, and purification processes adapted to handle variable inputs due to the fluctuations in harvest titer from the lengthy production process. A novel automated single-use (SU) viral inactivation (VI) skid was introduced, which entailed the development of a robust pH verification and alarm system, along with procedures for product isolation to allow discard of specific cycles. The CM process demonstrated consistent performance, meaning it met predefined performance criteria (including product quality attributes, or PQAs) when operated within established process parameters and manufactured according to applicable procedures. Using a 75% reduction in scale, it resulted in a five-fold reduction in process media and buffer usage, a fifteen-fold increase in mass per thaw, and an overall process productivity increase of 45-fold (as measured by grams drug substance per liter per day.) The hybrid CM process also enabled increased material demand to be met with no change in cost of goods manufactured or plant capacity, due to the repurposing of existing facility space and the flexible duration of the hybrid CM harvest. Overall, the success of the hybrid CM platform represents an exciting opportunity to reduce costs and increase process efficiency in industry.
期刊介绍:
Biotechnology Progress , an official, bimonthly publication of the American Institute of Chemical Engineers and its technological community, the Society for Biological Engineering, features peer-reviewed research articles, reviews, and descriptions of emerging techniques for the development and design of new processes, products, and devices for the biotechnology, biopharmaceutical and bioprocess industries.
Widespread interest includes application of biological and engineering principles in fields such as applied cellular physiology and metabolic engineering, biocatalysis and bioreactor design, bioseparations and downstream processing, cell culture and tissue engineering, biosensors and process control, bioinformatics and systems biology, biomaterials and artificial organs, stem cell biology and genetics, and plant biology and food science. Manuscripts concerning the design of related processes, products, or devices are also encouraged. Four types of manuscripts are printed in the Journal: Research Papers, Topical or Review Papers, Letters to the Editor, and R & D Notes.