FOMSy: 3D-printed flexible open-source microfluidic system and flow synthesis of PET-tracer

IF 2 4区 化学 Q3 CHEMISTRY, MULTIDISCIPLINARY
Florian Menzel, Jonathan Cotton, Thomas Klein, Andreas Maurer, Thomas Ziegler, Jochen M. Neumaier
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引用次数: 1

Abstract

In this work, we introduce a low-cost open-source flow system that includes a dual syringe pump with implemented pressure sensor and back pressure regulator. The entire system can be built for around 500 €. Commercially available flow systems can be very expensive with equipment starting at, but often greatly exceeding, 10,000 €. This high price of entry makes such technology prohibitively expensive for many research groups. Such systems stand to benefit the emerging academic pharmaceutical field by providing the experience and availability of reliable and affordable solutions. To implement accessible flow chemistry at research facilities, the systems must be made affordable. In addition, space in research laboratories is usually limited and commercially available flow systems can be very bulky. Having a compact and individually adjustable system is thus beneficial, with 3D printing technology offering the solution. Our compact 3D-printed system meets the needs of many applications in flow chemistry research as well as educational requirements for universities. As a proof of concept, we conceptualized, developed, and tested a custom flow system that can be used to synthesize [18F]2-fluoro-2-desoxy-d-glucose ([18F]FDG), the most commonly used PET-tracer. This system was designed to perform the typical functions and operations required in radiotracer production i.e. radiofluorination, dilution, SPE-trapping, deprotection, and SPE-elution. With this proof-of-concept in hand, the system can be easily customized to produce other radiopharmaceuticals.

Graphical Abstract

Abstract Image

FOMSy: 3d打印柔性开源微流控系统及pet示踪剂的流动合成
在这项工作中,我们介绍了一种低成本的开源流量系统,该系统包括一个带有实现压力传感器和背压调节器的双注射泵。整个系统的建造成本约为500欧元。商业上可用的流量系统非常昂贵,设备起价通常超过10,000欧元。这种高昂的入门价格使得这种技术对许多研究小组来说过于昂贵。这种系统通过提供可靠和负担得起的解决方案的经验和可用性,使新兴的学术制药领域受益。为了在研究设施中实现可访问的流动化学,必须使系统负担得起。此外,研究实验室的空间通常有限,商业上可用的流动系统可能非常笨重。因此,拥有一个紧凑且可单独调节的系统是有益的,3D打印技术提供了解决方案。我们的紧凑型3d打印系统满足流动化学研究中的许多应用需求以及大学的教育要求。作为概念验证,我们概念化、开发并测试了一个定制流程系统,该系统可用于合成最常用的pet示踪剂[18F]2-氟-2-脱氧-d-葡萄糖([18F]FDG)。该系统设计用于执行放射性示踪剂生产所需的典型功能和操作,即放射性氟化,稀释,spe捕获,去保护和spe洗脱。有了这个概念验证,该系统可以很容易地定制,以生产其他放射性药物。图形抽象
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来源期刊
Journal of Flow Chemistry
Journal of Flow Chemistry CHEMISTRY, MULTIDISCIPLINARY-
CiteScore
6.40
自引率
3.70%
发文量
29
审稿时长
>12 weeks
期刊介绍: The main focus of the journal is flow chemistry in inorganic, organic, analytical and process chemistry in the academic research as well as in applied research and development in the pharmaceutical, agrochemical, fine-chemical, petro- chemical, fragrance industry.
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