4.8 Article

Reforming of Soluble Biomass and Plastic Derived Waste Using a Bias-Free Cu30Pd70|Perovskite|Pt Photoelectrochemical Device

期刊

ADVANCED FUNCTIONAL MATERIALS
卷 32, 期 7, 页码 -

出版社

WILEY-V C H VERLAG GMBH
DOI: 10.1002/adfm.202109313

关键词

biomass; perovskite; plastic; reforming; solar fuels

资金

  1. Cambridge Circular Plastics Centre (CirPlas) [EP/S025308/1]
  2. Hermann and Marianne Straniak Stiftung
  3. Cambridge Trust (HRH The Prince of Wales Commonwealth Scholarship)
  4. Cambridge Trust (Cambridge Thai Foundation Award)
  5. Cambridge Trust (Vice-Chancellor's Award)
  6. Winton Programme for the Physics of Sustainability
  7. Cambridge Philosophical Society
  8. Trinity College
  9. St John's College
  10. Trinity-Henry Barlow Scholarship
  11. Marie-Sklodowska-Curie Individual European Fellowship (SolarFUEL) [GAN 839763]
  12. Austrian Science Fund (Schrodinger Fellowship) [J-4381]

向作者/读者索取更多资源

A perovskite-based photoelectrochemical device is reported to produce H-2 fuel and reform waste substrates with high product selectivity and formation rates, utilizing an oxidation catalyst to generate value-added products. The device shows significantly higher activity compared to conventional photoreforming systems and offers versatility in treating various waste streams. This PEC platform demonstrates potential as a commercially viable alternative for waste utilization.
The production of clean fuels and chemicals from waste feedstocks is an appealing approach towards creating a circular economy. However, waste photoreforming commonly employs particulate photocatalysts, which display low product yields, selectivity, and reusability. Here, a perovskite-based photoelectrochemical (PEC) device is reported, which produces H-2 fuel and simultaneously reforms waste substrates. A novel Cu30Pd70 oxidation catalyst is integrated in the PEC device to generate value-added products using simulated solar light, achieving 60-90% product selectivity and approximate to 70-130 mu mol cm(-2) h(-1) product formation rates, which corresponds to 10(2)-10(4) times higher activity than conventional photoreforming systems. The single-light absorber device offers versatility in terms of substrate scope, sustaining unassisted photocurrents of 4-9 mA cm(-2) for plastic, biomass, and glycerol conversion, in either a two-compartment or integrated artificial leaf configuration. These configurations enable an effective reforming of non-transparent waste streams and facile device retrieval from the reaction mixture. Accordingly, the presented PEC platform provides a proof-of-concept alternative towards photoreforming, approaching more closely the performance and versatility required for commercially viable waste utilization.

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