Photovoltaic-driven Ni()/Ni() redox mediator for the valorization of PET plastic waste with hydrogen production

Electrocatalytic valorization of PET plastic waste provides an appealing route by converting intermittent renewable energy into valuable chemicals and high-energy fuels. Normally, anodic PET hydrolysate oxidation and cathodic water reduction reactions occur simultaneously in the same time and space,...

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Veröffentlicht in:Chemical science (Cambridge) 2024-05, Vol.15 (2), p.7596-762
Hauptverfasser: Wang, Jianying, Li, Xin, Zhang, Ting, Chai, Xinyu, Xu, Mingze, Feng, Menglei, Cai, Chengcheng, Chen, Zuofeng, Qian, Xufang, Zhao, Yixin
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container_issue 2
container_start_page 7596
container_title Chemical science (Cambridge)
container_volume 15
creator Wang, Jianying
Li, Xin
Zhang, Ting
Chai, Xinyu
Xu, Mingze
Feng, Menglei
Cai, Chengcheng
Chen, Zuofeng
Qian, Xufang
Zhao, Yixin
description Electrocatalytic valorization of PET plastic waste provides an appealing route by converting intermittent renewable energy into valuable chemicals and high-energy fuels. Normally, anodic PET hydrolysate oxidation and cathodic water reduction reactions occur simultaneously in the same time and space, which increases the challenges for product separation and operational conditions. Although these problems can be addressed by utilizing membranes or diaphragms, the parasitic cell resistance and high overall cost severely restrict their future application. Herein, we introduce a Ni( ii )/Ni( iii ) redox mediator to decouple these reactions into two independent processes: an electrochemical process for water reduction to produce hydrogen fuel assisted by the oxidation of the Ni(OH) 2 electrode into the NiOOH counterpart, followed subsequently by a spontaneous chemical process for the valorization of PET hydrolysate to produce formic acid with a high faradaic efficiency of ∼96% by the oxidized NiOOH electrode. This decoupling strategy enables the electrochemical valorization of PET plastic waste in a membrane-free system to produce high-value formic acid and high-purity hydrogen production. This study provides an appealing route to facilitate the transformation process of PET plastic waste into high-value products with high efficiency, low cost and high purity. A decoupling strategy involving two independent electrochemical and chemical processes was developed for upcycling PET plastic waste.
doi_str_mv 10.1039/d4sc01613k
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subjects Anodizing
Chemical reactions
Chemical reduction
Chemistry
Decoupling
Diaphragms
Electrodes
Formic acid
High energy fuels
Hydrogen fuels
Hydrogen production
Hydrolysates
Membranes
Oxidation
Purity
title Photovoltaic-driven Ni()/Ni() redox mediator for the valorization of PET plastic waste with hydrogen production
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