利用研磨机无溶剂机械化学合成racc -布洛芬:烟酰胺共晶

Sarah Triller, Frederik Winkelmann, Jan-Hendrik Schöbel and Michael Felderhoff
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引用次数: 0

摘要

与纯活性药物成分(API)相比,由世卫组织基本药物racc -ibuprofen (IBU)和食品添加剂烟酰胺(NIC)形成的共晶具有增强的物理化学和镇痛特性,这说明了共晶如何改变药物特性。在此,我们提出了一种更可持续的,无溶剂的机械化学方法来合成racc -布洛芬:烟酰胺(IBU:NIC)共晶,超越了传统的基于溶液的方法,通常需要大量的溶剂和能量。本文首次研究了卧式磨粒机在共晶合成中的应用。我们的研究结果证明了这种研磨技术在促进共晶过程中的有效性,在30分钟内获得纯共晶。此外,进行了初步实验以探索从批处理到顺序处理的过渡。虽然我们的方法展示了在多图规模上使用磨砂机进行药物共晶合成,但它也表明了使用工业磨砂机扩大这一过程的机会。这项工作强调了现有研磨技术的适应性,以促进机械化学反应,展示了更环保的药物制造替代品。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Utilizing an attritor mill for solvent-free mechanochemical synthesis of rac-ibuprofen:nicotinamide co-crystals

Utilizing an attritor mill for solvent-free mechanochemical synthesis of rac-ibuprofen:nicotinamide co-crystals

The co-crystal formed from the WHO essential drug rac-ibuprofen (IBU) and the food additive nicotinamide (NIC) exhibits enhanced physicochemical and analgesic properties compared to the pure active pharmaceutical ingredient (API), exemplifying how co-crystallization can modify pharmaceutical characteristics. Herein, we present a more sustainable, solvent-free mechanochemical process for synthesizing rac-ibuprofen:nicotinamide (IBU:NIC) co-crystals, moving beyond conventional solution-based methods that typically require substantial amounts of solvents and energy. For the first time, we investigate the application of a horizontal attritor mill for co-crystal synthesis. Our findings demonstrate the effectiveness of this milling technology in facilitating the co-crystallization process, achieving pure co-crystals within 30 min. Additionally, initial experiments were conducted to explore the transition from a batch process to a sequential process. While our approach demonstrate the use of attritor mills for pharmaceutical co-crystal synthesis on a multigram scale, it also indicates opportunities for scaling up this process using industrial attritor mills. This work underscores the adaptation of existing grinding technologies to facilitate mechanochemical reactions, showcasing greener alternatives for pharmaceutical manufacturing.

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