背景(考古学)
单克隆抗体
2019年冠状病毒病(COVID-19)
可比性
临床试验
关键质量属性
比例(比率)
产品(数学)
病毒学
计算机科学
计算生物学
抗体
新产品开发
免疫学
医学
生物
生物信息学
业务
内科学
数学
物理
古生物学
疾病
组合数学
传染病(医学专业)
几何学
营销
量子力学
作者
Rita Agostinetto,J. W. Dawson,Angela Lim,Mirva Hejjaoui-simoneau,Cyril Boucher,Bernhard Valldorf,Adin Ross-gillespie,Joseph G. Jardine,Devin Sok,Dennis R. Burton,Thomas M. Hassell,Hervé Broly,Wolf Palinsky,Philippe Dupraz,Mark B. Feinberg,Antu Dey
出处
期刊:Authorea - Authorea
日期:2021-09-24
被引量:1
标识
DOI:10.22541/au.163251349.96835693/v1
摘要
Therapeutic proteins, including monoclonal antibodies, are typically manufactured using clonally-derived, stable host cell lines, since consistent and predictable cell culture performance is highly desirable. However, selecting and preparing banks of stable clones takes considerable time, which inevitably extends overall development timelines for new therapeutics by delaying the start of subsequent activities, such as the scale-up of manufacturing processes. In the context of the COVID-19 pandemic, with its intense pressure for accelerated development strategies, we used a novel transposon-based Leap-In Transposase® system to rapidly generate high-titer stable pools and then used them directly for large scale-manufacturing of an anti-SARS-CoV2 monoclonal antibody under cGMP. We performed the safety testing of our non-clonal cell bank, then used it to produce material at a 200L-scale for pre-clinical safety studies and formulation development work, and thereafter at 2000L scale for supply of material for a Phase 1 clinical trial. Testing demonstrated the comparability of critical product qualities between the two scales and, more importantly, that our final clinical trial product met all pre-set product quality specifications. The above expediated approach provided clinically-ready material within 4.5 months, in comparison to 12-14 months for production of clinical trial material via the conventional approach.
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