Advanced Drug Delivery, Pharmaceutical Sciences, R&D, AstraZeneca, Gothenburg, Sweden.
Advanced Drug Delivery, Pharmaceutical Sciences, R&D, AstraZeneca, Gothenburg, Sweden.
J Pharm Sci. 2019 Oct;108(10):3169-3175. doi: 10.1016/j.xphs.2019.05.027. Epub 2019 May 29.
Cell and gene therapies have the potential to be curative for severe disease states such as cancer or incurable orphan genetic diseases. Despite the promise, there are only few such therapies available, although more are appearing in pharmaceutical pipelines. A major culprit limiting a fast translation from preclinical research to the clinic and the market is chemistry, manufacturing and control. The root cause is that most cell and gene therapies currently are personalized in form of ex vivo manipulated cells. This approach stands in sharp contrast to the population-based approach seen for small molecules and protein therapeutics. Therefore, it warrants a different approach to product manufacturing, testing, release, regulatory submissions, and product distribution. In this commentary, we highlight opportunities to solve these issues already in progress in industry and at academic institutions, but in addition call for expert contributions to a future cluster of articles in Journal of Pharmaceutical Sciences to illuminate additional solutions. Finally, we are also providing a perspective on future directions including expanding from current approaches of gene modification via viral vectors to for example gene editing, approaches that may lend themselves better toward allogenic and in vivo therapies and more typical chemistry, manufacturing and control approaches.
细胞和基因疗法有可能治愈癌症或无法治愈的孤儿遗传性疾病等严重疾病状态。尽管有这种前景,但目前可用的此类疗法很少,尽管在制药管道中出现了更多的疗法。从临床前研究到临床和市场的快速转化受到化学、制造和控制的严重限制。造成这种情况的根本原因是,大多数细胞和基因疗法目前都是体外操作细胞的个性化形式。这种方法与小分子和蛋白质治疗的基于人群的方法形成鲜明对比。因此,它需要对产品制造、测试、放行、监管提交和产品配送采用不同的方法。在这篇评论中,我们强调了在行业和学术机构中已经在进行的解决这些问题的机会,但此外还呼吁专家们为未来在《药物科学杂志》上发表的一系列文章做出贡献,以阐明其他解决方案。最后,我们还对未来的方向提出了看法,包括从目前通过病毒载体进行基因修饰的方法扩展到基因编辑,这些方法可能更适合异体和体内治疗以及更典型的化学、制造和控制方法。