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A review on fundamental combustion characteristics of syngas mixtures and feasibility in combustion devices

机译:燃烧装置合成气混合物和可行性基本燃烧特性综述

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摘要

Syngas is a promising alternative fuel due to clean combustion with lower greenhouse gas emissions. The multicomponent fuel mixture primarily consists of hydrogen, carbon monoxide, nitrogen, carbon dioxide and traces of moisture. The composition of syngas strongly depends on the feedstock and the choice of production method. The wide compositional variability of syngas poses hurdles in developing appliances such as burners and combustion chambers. This review summarizes the recent research on syngas & rsquo; fundamental combustion characteristics, such as laminar and turbulent burning velocity. The burning velocity prediction capabilities of various reaction mechanisms were analyzed. Comparing the laminar burning velocity predictions using different kinetic schemes with available experimental data in the literature establishes the validity of kinetic schemes. A considerable discrepancy is observed between the experimental data and the present numerical predictions for elevated temperatures at different equivalence ratios. The recent developments in syngas burners, stability regimes, and the need for laminar/turbulent burning velocity data at high temperatures and pressure to improve computational modeling of industrial syngas burners are emphasized. The existing research gap in burners to accommodate syngas with the higher mole fraction of hydrogen is also explored.
机译:由于温室气体排放较低的燃烧,合成气是一个有前途的替代燃料。多组分燃料混合物主要由氢,一氧化碳,氮气,二氧化碳和水分痕迹组成。合成气的组成强烈取决于原料和生产方法的选择。合成气的广泛组成变异在开发设备中的障碍造成燃烧器和燃烧室的障碍。本综述总结了最近关于合成气和rsquo的研究;基本燃烧特性,如层流和湍流燃烧速度。分析了各种反应机制的燃烧速度预测能力。将使用不同动力学方案的层状燃烧速度预测与文献中可用的实验数据进行比较,建立了动力学方案的有效性。在实验数据和当前数值预测之间观察到相当大的差异,在不同的等效比率下的升高的温度。强调,最近在高温和压力下改善工业合成气燃烧器的计算建模的高温和压力下的合成气燃烧器,稳定性制度以及对流体/湍流燃烧速度数据的最新进展。还探讨了燃烧器现有的研究空间,以容纳合成气与较高的摩尔氢摩尔氢。

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