Remi Nguyen, Amélie Auvigne, Antonio M. Pérez Merchán, Irene Malpartida and Christophe Len*,
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引用次数: 0
摘要
开发了 ICHeM 技术(冲击连续加热机械化学),用于制备不同的深共晶溶剂 (DES),如氯化胆碱-尿素(1:2,摩尔/摩尔)、氯化胆碱-甘油(1:2,摩尔/摩尔)、氯化胆碱-草酸(1:1,摩尔/摩尔)和氯化胆碱-氯化锌(1:2,摩尔/摩尔),具有毕业形成挑战。设计的 DES 无需外部加热即可获得,生产率为 4.8 至 254 克/分钟。此外,利用核磁共振、傅立叶变换红外光谱(ATR)、ICP-MS、差示扫描量热仪、粘度和相对介电常数对 DES 进行的表征显示,与采用传统工艺获得的 DES 相比,DES 具有相同的物理化学特性。在所有情况下,即使是对更具挑战性的 DES 来说,珠子的机械化学辅助连续流工艺与传统的批量制备工艺相比,在性能、能源、操作时间、安全性、经济性等方面都具有无可比拟的优势,从而实现了工业化规模。这种新工艺为满足工业界对 DES 生产的新期望开辟了道路,使这种基于溶剂的绿色工艺在许多领域都得到了长足的发展。
New High-Throughput Mechanochemical Assisted Continuous Flow for the Formation of Deep Eutectic Solvents
ICHeM technology (Impact Continuous Heated Mechanochemical) was developed for the preparation of different deep eutectic solvents (DESs) such as choline chloride–urea (1:2, mol/mol), choline chloride–glycerol (1:2, mol/mol), choline chloride–oxalic acid (1:1, mol/mol), and choline chloride–zinc chloride (1:2, mol/mol) with graduate formation challenges. The designed DESs were obtained without external heating with a productivity ranging from 4.8 to 254 g min–1. Moreover, characterization of DESs using NMR, FT-IR (ATR), ICP-MS, differential scanning calorimetry, viscosity, and relative permittivity showed identical physicochemical properties compared with DESs obtained using conventional processes. In all cases, even and almost for more challenging DESs, the beads’ mechanochemical assisted continuous flow process showed incomparable advantages in comparison with traditional batch preparation processes, in terms of performance, energy, operating time, security, economics, and thus industrial-scale reality. This new process opens the routes to meet the industry’s new expectations for DES production to follow the future drastic development of this green solvent-based process in many fields.
期刊介绍:
The journal Organic Process Research & Development serves as a communication tool between industrial chemists and chemists working in universities and research institutes. As such, it reports original work from the broad field of industrial process chemistry but also presents academic results that are relevant, or potentially relevant, to industrial applications. Process chemistry is the science that enables the safe, environmentally benign and ultimately economical manufacturing of organic compounds that are required in larger amounts to help address the needs of society. Consequently, the Journal encompasses every aspect of organic chemistry, including all aspects of catalysis, synthetic methodology development and synthetic strategy exploration, but also includes aspects from analytical and solid-state chemistry and chemical engineering, such as work-up tools,process safety, or flow-chemistry. The goal of development and optimization of chemical reactions and processes is their transfer to a larger scale; original work describing such studies and the actual implementation on scale is highly relevant to the journal. However, studies on new developments from either industry, research institutes or academia that have not yet been demonstrated on scale, but where an industrial utility can be expected and where the study has addressed important prerequisites for a scale-up and has given confidence into the reliability and practicality of the chemistry, also serve the mission of OPR&D as a communication tool between the different contributors to the field.