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Hollow-Architected Heteroatom-Doped Carbon-Supported Nanoscale Cu/Co as an Enhanced Magnetic Activator for Oxone to Degrade Toxicants in Water. | LitMetric

AI Article Synopsis

  • - Transition metals are effective in activating Oxone for degrading toxic contaminants, but bimetallic materials (like CuCoNC) show even higher catalytic activity due to synergistic effects.
  • - CuCoNC features a unique hollow structure formed from cobaltic metal-organic frameworks, enhancing its electrochemical properties, porous structure, and nitrogen content compared to CoNC which lacks copper.
  • - CuCoNC demonstrates superior performance in activating Oxone to degrade Rhodamine B, requiring less activation energy and maintaining effectiveness across different water conditions, along with insights into the degradation mechanism.

Article Abstract

Even though transition metals can activate Oxone to degrade toxic contaminants, bimetallic materials possess higher catalytic activities because of synergistic effects, making them more attractive for Oxone activation. Herein, nanoscale CuCo-bearing N-doped carbon (CuCoNC) can be designed to afford a hollow structure as well as CuCo species by adopting cobaltic metal organic frameworks as a template. In contrast to Co-bearing N-doped carbon (CoNC), which lacks the Cu dopant, CuCo alloy nanoparticles (NPs) are contained by the Cu dopant within the carbonaceous matrix, giving CuCoNC more prominent electrochemical properties and larger porous structures and highly nitrogen moieties. CuCoNC, as a result, has a significantly higher capability compared to CoNC and CoO NPs, for Oxone activation to degrade a toxic contaminant, Rhodamine B (RDMB). Furthermore, CuCoNC+Oxone has a smaller activation energy for RDMB elimination and maintains its superior effectiveness for removing RDMB in various water conditions. The computational chemistry insights have revealed the RDMB degradation mechanism. This study reveals that CuCoNC is a useful activator for Oxone to eliminate RDMB.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC10537558PMC
http://dx.doi.org/10.3390/nano13182565DOI Listing

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