Laihui Xiao, Tianlai Xia, Jian Zhang, Sam J. Parkinson, Julia Y. Rho, Andrew P. Dove, Rachel K. O’ Reilly
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引用次数: 0
摘要
结晶驱动自组装(CDSA)提供了一种简单的方法来获得定义良好的纳米结构。然而,通过CDSA制备纳米结构受到处理时间长和吞吐量有限的限制,主要是由于种子制备和小批量限制。反过来,这限制了扩大CDSA以实现合成粒子应用的潜力。在这里,我们报告了一种快速的种子制备方法,通过过饱和聚合物溶液在流动系统中驱动均匀的种子胶束形成。这大大减少了处理时间,从一周减少到几分钟。重要的是,所应用的模块化流级联可以集成种子制备和活性CDSA,从而可以在3分钟内直接从聚合物端到端生产纳米结构。获得的132 mg h - 1的吞吐量超过了其他报道的方法的数量级,反过来,为精密纳米材料的规模化提供了一步。结晶驱动自组装是一种获得良好定义的纳米结构的强大方法,但长时间的加工时间和有限的吞吐量限制了其应用。现在引入了一种基于流动的策略,用于从各种可结晶聚合物中制备自组装的2D血小板,减少了处理时间,提高了吞吐量。
Direct preparation of two-dimensional platelets from polymers enabled by accelerated seed formation
Crystallization-driven self-assembly (CDSA) presents a facile method to access well-defined nanostructures. However, nanostructure preparation via CDSA has been constrained by prolonged processing time and limited throughput, primarily due to seed preparation and confinement to small batch scales. In turn, this limits the potential to scale up CDSA to enable application of the resultant particles. Here we report a rapid seed preparation method that drives uniform seed micelle formation by supersaturating polymer solutions in a flow system. This leads to a large reduction in processing time, from a week down to minutes. Importantly, the modular flow cascade applied can integrate both seed preparation and living CDSA, enabling end-to-end production of nanostructures directly from polymers in 3 min. The attained throughput of 132 mg h−1 surpasses that of other reported methods by orders of magnitude and, in turn, provides a step forward for the scaling-up of precision nanomaterials. Crystallization-driven self-assembly is a powerful method for accessing well-defined nanostructures, but prolonged processing times and limited throughput constrain its application. Now a flow-based strategy is introduced for the preparation of self-assembled 2D platelets from various crystallizable polymers with a reduced processing time and enhanced throughput.