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1.北京科技大学 能源与环境工程学院,北京100083
2.北京科技大学顺德创新学院,广东 佛山 528300
3.中国北方发动机研究所,天津 300405
4.中国北方发动机研究所 车用动力系统全国重点实验室,天津 300405
王豫飞(2002—),硕士研究生,研究方向为富氢气体中CO脱除,E-mail:wyf13548462143@126.com。
罗春欢(1983—),博士,副教授,研究方向为重整/化学链/膜反应器制氢及新能源系统技术,E-mail:luochunhuan@ustb.edu.cn。
收稿:2025-07-01,
修回:2025-08-13,
网络出版:2026-01-12,
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王豫飞,罗春欢,白伟等.Ni/Ru基双催化剂两段式CO选择性甲烷化实验研究[J].低碳化学与化工,
WANG Yufei,LUO Chunhuan,BAI Wei,et al.Experimental study on two-stage selective methanation of CO over Ni/Ru-based dual catalysts[J].Low-Carbon Chemistry and Chemical Engineering,
王豫飞,罗春欢,白伟等.Ni/Ru基双催化剂两段式CO选择性甲烷化实验研究[J].低碳化学与化工, DOI:10.12434/j.issn.2097-2547.20250289.
WANG Yufei,LUO Chunhuan,BAI Wei,et al.Experimental study on two-stage selective methanation of CO over Ni/Ru-based dual catalysts[J].Low-Carbon Chemistry and Chemical Engineering, DOI:10.12434/j.issn.2097-2547.20250289.
针对碳基燃料重整氢气中CO深度脱除以及Ru基催化剂非贵金属替代问题,提出了基于Ni/Ru基双催化剂两段式CO选择性甲烷化(CO-SMET)技术。分别制备了Cl负载的Ru和Ni基催化剂,在入口气体H
2
/CO
2
/CO(体积分数分别为75.0%、24.5%和0.5%)条件下,研究了其CO-SMET催化性能和CO甲烷化选择性。结果表明,一段式CO-SMET中,Cat-10Ni5Cl的出口CO浓度为17 μmol/mol,温度为310 ℃,CO甲烷化选择性为75.1%;Cat-1.5Ru4.5Cl的出口CO浓度为32 μmol/mol,温度为250 ℃,CO甲烷化选择性为65.9%。Ni/Ru基双催化剂两段式CO-SMET的出口CO浓度为8 μmol/mol,第一段和第二段温度分别为280 ℃和230 ℃,CO甲烷化选择性为80.0%。Cat-10Ni5Cl(作为第一段催化剂)在较低温度具有高CO甲烷化选择性,Cat-1.5Ru4.5Cl(作为第二段催化剂)在低温下具有高活性,两段式CO-SMET能够实现CO深度脱除,以实现Ru基贵金属催化剂的部分替代。
To address the challenges of deep CO removal from hydrogen produced by carbon-based fuel
reforming and the replacement of Ru-based noble metal catalysts with non-noble metals
a two-stage selective methanation of CO (CO-SMET) technology over Ni/Ru-based dual catalysts was proposed. Ru-based and Ni-based catalysts with chloride loading were prepared
and their CO-SMET catalytic performances and CO methanation selectivities were investigated under inlet gas H
2
/CO
2
/CO (volume fractions of 75.0%
24.5%
and 0.5%
respectively). The results show that
in single-stage CO-SMET
the outlet CO concentration is 17 μmol/mol
and the temperature is 310 ℃
and the CO methanation selectivity is 75.1% over Cat-10Ni5Cl
whereas the outlet CO concentration is 32 μmol/mol
and the temperature is 250 ℃
and the v selectivity is 65.9% over Cat-1.5Ru4.5Cl. In the two-stage CO-SMET over Ni/Ru-based dual catalysts
the outlet CO concentration is 8 μmol/mol
and the temperatures of first stage and second stage is 280 ℃ and 230 ℃
respectively
with the CO methanation selectivity of 80.0%. Cat-10Ni5Cl
(as the first-stage catalyst) exhibits high CO methanation selectivity at lower temperatures
and Cat-1.5Ru4.5Cl
(as the second-stage catalyst) exhibits high activity at low temperatures. Two-stage CO-SMET enables deep CO removal and partially replaces Ru-based noble metal catalysts.
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