In situ palladium-doped conjugated polymer network for visible light and natural sunlight-driven Suzuki type cross-coupling reaction at room temperature†

IF 4.4 3区 化学 Q2 CHEMISTRY, PHYSICAL Catalysis Science & Technology Pub Date : 2024-06-17 DOI:10.1039/d4cy00089g
Raj Laxmi ,  Anshuman ,  Anamika , Neelam Gupta , Biplab K. Kuila
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Abstract

Here, we describe the direct exploitation of visible light energy by using a conjugated polymer network (CPN) that is susceptible to an in situ loading of Pd metal for photocatalytic Suzuki-type C–C cross-coupling reaction. The requisite products were quantitatively achieved (yield >90%), under photo-illumination using an environment-friendly solvent. Under normal solar light, similar catalytic activity was maintained using the same experimental conditions. To comprehend the function of every variable and reactive species involved in the reaction's path, in-depth mechanistic studies were carried out. It is further underlined that the CPN has greater catalytic efficiency based on its exceptional resistance to 50 substrates of varying functionality, for 5 consecutive catalyst recycling cycles as well as bulk-scale reactions and a turnover frequency value of up to 1840 h−1 at a low catalyst dose of Pd (0.0125 mol%), while maintaining its catalytic efficacy. Its catalytic competence in terms of scope, scalability, environmental friendliness, and sustainability supports its proficiency.

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原位掺钯共轭聚合物网络,用于室温下可见光和自然光驱动的铃木型交叉耦合反应
在此,我们介绍了利用共轭聚合物网络 (CPN) 直接利用可见光能量进行光催化铃木型 C-C 交叉偶联反应的方法。在使用环境友好型溶剂的光照条件下,可定量生成所需的产物(产率达 90%)。在正常太阳光下,相同的实验条件也能保持类似的催化活性。为了理解反应路径中涉及的每个变量和反应物的功能,研究人员进行了深入的机理研究。研究进一步强调了 CPN 具有更高的催化效率,因为它对 50 种不同功能的底物具有卓越的耐受性,可连续进行 5 次催化剂循环以及批量反应,并且在钯的催化剂剂量较低(0.0125 摩尔%)的情况下,周转频率值高达 1840 小时-1,同时还能保持其催化功效。它在范围、可扩展性、环境友好性和可持续性方面的催化能力证明了它的能力。
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来源期刊
Catalysis Science & Technology
Catalysis Science & Technology CHEMISTRY, PHYSICAL-
CiteScore
8.70
自引率
6.00%
发文量
587
审稿时长
1.5 months
期刊介绍: A multidisciplinary journal focusing on cutting edge research across all fundamental science and technological aspects of catalysis. Editor-in-chief: Bert Weckhuysen Impact factor: 5.0 Time to first decision (peer reviewed only): 31 days
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