用于液体分离的聚砜膜的可持续增材制造

Brian Leonard, Harrison A. Loh, David Lu, Ebuka A. Ogbuoji, Isabel C Escobar, Konstantinos Sierros, Oishi Sanyal
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引用次数: 0

摘要

膜是现代制造和净化工艺的重要组成部分,但传统上与溶剂的过度使用有关。在这里,我们首次展示了一种通过将直接油墨书写与非溶剂诱导相反转相结合来制造大面积聚砜膜的工艺。这种工艺的控制能力和精确度都非常高,可以在制膜过程中完全利用聚合物掺杂溶液,从而显著减少材料浪费。与刮刀制造相比,使用直接油墨书写技术制造类似尺寸的膜时,掺杂溶液的用量减少了 63%。横流过滤分析表明,无论采用哪种制造方法(直接涂墨法与刮刀法),膜的分离性能几乎完全相同。分离性能是根据纯水和 BSA 溶液的牛血清白蛋白(BSA)排斥率和渗透率(压力归一化通量)来评估的。这种新的制造策略可以减少材料和溶剂的用量,同时提供大量可调整参数的工具包,有助于推动膜技术的发展。
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Sustainable additive manufacturing of polysulfone membranes for liquid separations
Membranes serve as important components for modern manufacturing and purification processes but are conventionally associated with excessive solvent usage. Here, for the first time, a procedure for fabricating large area polysulfone membranes is demonstrated via the combination of direct ink writing with non-solvent induced phase inversion. The superior control and precision of this process allows for complete utilization of the polymer dope solution during membrane fabrication, thus enabling a significant reduction in wasted material. Compared to doctor blade fabrication, a 63% reduction in dope solution volume was achieved using the direct ink writing technique for fabricating similarly sized membranes. Cross flow filtration analysis revealed that, independent of the manufacturing method (direct ink writing vs. doctor blade), the membranes exhibited near identical separation properties. The separation properties were assessed in terms of bovine serum albumin (BSA) rejection and permeances (pressure normalized flux) of pure water and BSA solution. This new manufacturing strategy allows for the reduction of material and solvent usage while providing a large toolkit of tunable parameters which can aid in advancing membrane technology.
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