构建掺杂 B、N 共价键的纳米多孔碳以实现室温吸附和活化甲醛的巧妙策略

IF 2.1 4区 材料科学 Q3 CHEMISTRY, MULTIDISCIPLINARY Journal of Nanoparticle Research Pub Date : 2024-11-20 DOI:10.1007/s11051-024-06183-0
Fengyang Jing, Shuping Zhang, Yaoyao Wu, Jiuyang Lin, Chenliang Zhou, Wenjing Yuan
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引用次数: 0

摘要

甲醛(HCHO)的捕捉是 HCHO 净化系统的关键步骤,需要可调节的吸附剂表面结构来提高 HCHO 的吸附能力。众所周知,碳材料具有高表面积和结构可调性,是消除室内 HCHO 污染物的极有价值的候选材料。本文基于 B、N 掺杂理论,在纳米多孔碳表面构建了一种新型电子受体-供体结构。通过实验测试系统地研究了B、N共掺杂纳米多孔碳(BNC)表面吸附和活化HCHO的机理,结果表明B-N路易斯对位点比掺氮和不掺氮的样品具有更大的吸附能力。本研究深入了解了 B-N Lewis 对吸附 HCHO 的贡献,以及在室温下吸附的 HCHO 转化为毒性较低的中间物种的相应积极影响。
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An ingenious strategy for construction of B, N Co-doped nanoporous carbon toward room-temperature adsorption and activation of formaldehyde

The capture of formaldehyde (HCHO) is a crucial step in the HCHO purification system that requires an adjustable surface structure of adsorbent to enhance the HCHO adsorption ability. Carbon material, known to contain high surface area and structural tunability, provides an extremely valuable candidate to eliminate indoor HCHO pollutant. Herein, a novel electron acceptor–donor structure is constructed to the surface of nanoporous carbon based on the B, N doping theory. The mechanism of HCHO adsorption and activation on the surface of B, N co-doped nanoporous carbon (BNC) is systematically investigated by experimental tests that the B–N Lewis pair sites contribute a larger adsorption capacity than that of nitrogen-doping and non-doping samples. The present study gives an in-depth understanding about the contribution of the B–N Lewis pair for HCHO adsorption, and also corresponding positive impacts on the transformation into less toxic intermediate species of adsorbed HCHO at room temperature.

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来源期刊
Journal of Nanoparticle Research
Journal of Nanoparticle Research 工程技术-材料科学:综合
CiteScore
4.40
自引率
4.00%
发文量
198
审稿时长
3.9 months
期刊介绍: The objective of the Journal of Nanoparticle Research is to disseminate knowledge of the physical, chemical and biological phenomena and processes in structures that have at least one lengthscale ranging from molecular to approximately 100 nm (or submicron in some situations), and exhibit improved and novel properties that are a direct result of their small size. Nanoparticle research is a key component of nanoscience, nanoengineering and nanotechnology. The focus of the Journal is on the specific concepts, properties, phenomena, and processes related to particles, tubes, layers, macromolecules, clusters and other finite structures of the nanoscale size range. Synthesis, assembly, transport, reactivity, and stability of such structures are considered. Development of in-situ and ex-situ instrumentation for characterization of nanoparticles and their interfaces should be based on new principles for probing properties and phenomena not well understood at the nanometer scale. Modeling and simulation may include atom-based quantum mechanics; molecular dynamics; single-particle, multi-body and continuum based models; fractals; other methods suitable for modeling particle synthesis, assembling and interaction processes. Realization and application of systems, structures and devices with novel functions obtained via precursor nanoparticles is emphasized. Approaches may include gas-, liquid-, solid-, and vacuum-based processes, size reduction, chemical- and bio-self assembly. Contributions include utilization of nanoparticle systems for enhancing a phenomenon or process and particle assembling into hierarchical structures, as well as formulation and the administration of drugs. Synergistic approaches originating from different disciplines and technologies, and interaction between the research providers and users in this field, are encouraged.
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