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Development and implementation of ISAR a new synthesis platform for radiopharmaceutical production

机译:ISAR的开发和实施ISAR是放射性药物生产的新合成平台

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摘要

BackgroundPET radiopharmaceutical development and the implementation of a production method on a synthesis module is a complex and time-intensive task since new synthesis methods must be adapted to the confines of the synthesis platform in use. Commonly utilized single fluid bus architectures put multiple constraints on synthesis planning and execution, while conventional microfluidic solutions are limited by compatibility at the macro-to-micro interface. In this work we introduce the ISAR synthesis platform and custom-tailored fluid paths leveraging up to 70 individually addressable valves on a chip-based consumable. The ISAR synthesis platform replaces traditional stopcock valve manifolds with a fluidic chip that integrates all fluid paths (tubing) and valves into one consumable and enables channel routing without the single fluid bus constraint. ISAR can scale between the macro- (10 mL), meso- (0.5 mL) and micro- (≤0.05 mL) domain seamlessly, addressing the macro-to-micro interface challenge and enabling custom tailored fluid circuits for a given application. In this paper we demonstrate proof-of-concept by validating a single chip design to address the challenge of synthesizing multiple batches of [13N]NH3 for clinical use throughout the workday.
机译:背景技术由于新的合成方法必须适应所用合成平台的范围,因此PET放射性药物的开发和在合成模块上生产方法的实现是一项复杂且耗时的任务。常用的单流体总线体系结构对合成计划和执行施加了多个约束,而常规的微流体解决方案受到宏与微接口兼容性的限制。在这项工作中,我们介绍了ISAR综合平台和量身定制的流体路径,这些路径利用基于芯片的易损件上的多达70个可单独寻址的阀。 ISAR综合平台用流体芯片代替了传统的旋塞阀歧管,该芯片将所有流体路径(管道)和阀门集成到一个消耗品中,并在没有单个流体总线约束的情况下实现通道路由。 ISAR可以无缝地在宏观(10µmL),中观(0.5µmL)和微观(≤0.05µmL)域之间缩放,从而解决了宏观到微观界面的难题,并为给定应用启用了定制的量身定制的流体回路。在本文中,我们通过验证单芯片设计来证明概念验证,以解决在整个工作日中合成多批用于临床的[ 13 N] NH3的挑战。

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