Fumigation of Producer Gas in a Diesel Genset: Performance and Emission Characteristics

M. Rith, J. B. Biona, A. Maglaya, A. Fernando, Jeremias A. Gonzaga, H. Gitano-Briggs
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引用次数: 3

Abstract

Gasification is a thermo-chemical process, which convert solid biomass into combustible gas called producer gas. In this study a combustion of producer gas was combined with the diesel fuel to determine its engine performance and the emission produced. The study focused on the maximum diesel fuel replacement rate applied in an induced-draft based gasification set - up. This paper investigate the effect of a producer gas flow rate on the engine performance by using the force-draft based gasifier. A mixture of Jatropha seed and Jatropha press-cake in 1:1 ratio (volumetric basis) was used as the feedstock for the throat less downdraft gasifier. The gaseous product was used in a 2.5 kWe (Kilowatts electrical) diesel generator set to partially replace the diesel fuel. Two producer gas flow rates were chosen in studying the engine performance and emission characteristics: 10 kg/h and 20 kg/h. The engine load was varied from 0.5 kWe to 2.0 kWe in 500 We increment. The result showed that the diesel fuel replacement was maximized at 1 kWe. Diesel fuel replacement rate is higher at the higher fuel gas flow rate. The maximum diesel fuel saving was 70% when 20 kg/h gas is introduced, and the engine was operated at 1.0 kWe load or 40% at full load. The specific diesel fuel consumption was found to be lower at dual fuel mode as compared with single diesel mode in over the entire load range. CO and CO2 emission increased with the increase in gas flow rate for all loads.
柴油发电机组产气的熏蒸:性能和排放特性
气化是一种热化学过程,它将固体生物质转化为可燃气体,称为生产者气体。在本研究中,生产者气体的燃烧与柴油燃料相结合,以确定其发动机性能和产生的排放。研究的重点是在诱导通风气化装置中应用的最大柴油替代率。采用力吸式气化炉,研究了产气流量对发动机性能的影响。以麻疯树种子和麻疯树压榨饼为原料,以体积为基础按1:1的比例配制成无喉下吸式气化炉。该气体产品用于2.5千瓦(千瓦电)柴油发电机组,以部分替代柴油燃料。选取10 kg/h和20 kg/h两种产气流量对发动机性能和排放特性进行了研究。发动机负荷以500we的增量从0.5 kWe变化到2.0 kWe。结果表明,在1kwe时柴油替代量最大。燃气流量越大,柴油替代率越高。当引入20 kg/h燃气时,柴油机最大节油率为70%,发动机负荷为1.0 kWe,满载时为40%。在整个负荷范围内,双燃料模式比单燃料模式的柴油油耗更低。各负荷的CO和CO2排放量随气体流量的增加而增加。
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