1) CH4/air combustion
甲烷/空气燃烧
2) Methane combustion
甲烷燃烧
1.
The effects of ceria and zirconium oxides additions to alumina-supported palladium catalysts on methane combustion behavior were investigated.
考察了Ce-Zr复合氧化物的添加对Al2O3负载Pd催化剂的甲烷燃烧性能的影响,并利用XRD,TPR,TPO技术对Pd/CexZr1-xO2/Al2O3体系催化剂的物相结构及氧化还原性能进行了研究。
2.
After only being dried they were tested for methane combustion.
用上述仅经过干燥处理的催化剂进行甲烷燃烧反应并对不同反应阶段的催化剂样品进行ＸＰＳ分析。
3.
As the support of a Pd catalyst for methane combustion,Ce.
作为甲烷燃烧Pd催化剂的载体,Ce-Zr-O/Si-Al2O3的性能明显优于CeO2-ZrO2,Si-Al2O3和机械混合物CeO2-ZrO2+Si-Al2O3。
3) combustion of methane
甲烷燃烧
1.
Modification of Al_2O_3 by BaO and catalytic performances of MnO_x /BaO-Al_2O_3 in combustion of methane;
BaO对Al_2O_3的改性及MnO_x/BaO-Al_2O_3对甲烷燃烧的催化活性
4) high temperature air combustion of methane
甲烷高温室气燃烧
5) air combustion
空气燃烧
1.
Compared with air combustions,pure oxygen combustions increase the concentration of carbon dioxide.
纯氧燃烧较空气燃烧提高了CO2的浓度,有利于CO2的回收利用,减少了对环境的污染。
2.
The application principle and basic theory of the high temperature air combustion was briefly described by metallurgical reaction engineering theory, and the feature of reaction engineering was analyzed.
为了使高温低氧空气燃烧技术得到更好的应用,从反应工程学角度论述了高温低氧空气燃烧的技术原理及基础理论,重点讨论了烟气余热回收和低NOx含量排放等技术措施中的重要传输现象及过程的反应动力学特征。
6) methane-air
甲烷–空气
1.
Entropy generation during methane-air diffusion combustion was studied.
借助Fluent软件模拟了甲烷–空气扩散燃烧过程,对燃烧过程进行了熵产分析。
补充资料：沸腾床燃烧(见流化床燃烧)
沸腾床燃烧(见流化床燃烧)
boiling-bed combustion:see fluidized-bed combustion
沸腾床燃烧(boiling一bed eombustion)见流化床燃烧。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条