1) char combustion
焦碳燃烧
1.
The conversion of Char N to NO during the char combustion was studied with a single particle model.
计算结果表明 ,颗粒粒径、环境 NO和 O2 浓度对焦碳燃烧过程中 NO形成及还原都有重要的影响。
2) coke combustion
焦炭燃烧
1.
Analysis of the coke combustion in the raceway will provide the fundamental insights and lay a foundation for simulation of the combustion processes in the raceway and prediction of the injection coal burnt-out rate under various tuyere operations.
对回旋区内焦炭燃烧行为的研究是研究喷煤燃烧过程的基础。
2.
The concentration of oxygen can be reduced to less than 1% after deoxidization by using coke combustion method.
通过焦炭燃烧法除氧,氧气浓度能够降至1%以下。
3) burning of bedcoke
底焦燃烧
5) Coal char combustion
煤焦燃烧
1.
Probability and necessity of introducing coal char combustion simulation to thermal calculation in furnace design is analyzed.
在此基础上,建立了适合于炉膛分区段热力计算的煤焦燃烧模型,并最终将煤焦非均相反应的实验室数据应用于炉膛分区段热力计算,克服了目前炉膛设计热力计算仅考虑传热所带来的不足。
6) combustion of char particle
碳粒燃烧
1.
The energy distribution coefficient (Xc) in combustion of char particles was studied by using the improved moving flame front (MFF) model.
应用改进的移动火焰锋面(MFF)模型对碳粒燃烧的能量分配系数进行了研究,得到了考虑CO在颗粒边界层内燃烧及CO2发生表面还原反应的能量分配系数表达式。
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