4.7 Article

Enhanced removal for H2S by Cu-ordered mesoporous carbon foam

Journal

JOURNAL OF HAZARDOUS MATERIALS
Volume 396, Issue -, Pages -

Publisher

ELSEVIER
DOI: 10.1016/j.jhazmat.2020.122710

Keywords

H2S; Carbon foam; Copper; Dispersion; Breakthrough curve

Funding

  1. National Natural Science Foundation of China [51678307]
  2. National Key Research and Development Program of China [2019YFC0408302]
  3. Fundamental Research Funds for the Central Universities [30919011209]
  4. Open Fund of Jiangsu Engineering Laboratory for Environment Functional Materials [JSEFM201805]
  5. Open Project Program of Provincial Key Laboratory of Clean Energy Materials, LongYan University [QJNY-201801]
  6. priority academic program development of Jiangsu higher education institutions

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It is of great significance to protect workers from Sulphur compounds in efficient ways during the regular overhaul or emergency management. Efficient adsorbent with low pressure drop is highly desired in protective equipment. In this work, Cu-ordered mesoporous carbon foams (MeCF) were prepared through the sol-gel casting and wet-impregnation process. The obtained carbon foams possessed typical sponge structure with high porosity and copper particles attached on the skeleton. The characterization on morphology, structure and property illustrated that the presence of mesopores could effectively inhibit the growth of copper particle on MeCF. As the representative of Sulphur compounds, H2S was selected to evaluate the protective performance. Porous copper carbon foams with moderate loading rate (3%) of copper species exhibited longest breakthrough time and largest adsorption capacity. Compared with the microporous foams, MeCF-3 displayed promoted protective performance with breakthrough time of 54.7 min and adsorption capacity of 27.8 mg/g. The enhancement on capabilities was attributed to small-sized copper species with high activity and better dispersion on mesoporous structure. These results reveled that MeCF with sponge frameworks, developed mesoporous structure and high dispersion of active species would be a promising candidate for the elimination of H2S in personal protective equipment.

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