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Studi Numerik Pembakaran Butana (C4H10) dalam Meso Scale Combustor dengan Perforated Plate

机译:具有多孔板的Meso刻度燃烧器中的数值研究燃烧丁烷(C4H10)

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摘要

This research was conducted to determine the combustion stability and flame temperature inside meso-scale combustor with variations of perforated plate flame holder and combustion gas temperature at combustor exit side using numerical method or Computational Fluid Dynamics (CFD). Meso-scale combustor is made of two pieces of quartz glass tube with a length of 20 mm and 10 mm. Each quartz glass tube having an internal diameter of 3.5 mm and a wall thickness of 0.7 mm. Two kinds of perforated plate flame holder made of copper i.e. perforated plate type I and perforated plate type II, inserted between two quartz glass tubes. Butane (C4H10) and air were used in this study as fuel and oxidizer, respectively. Numerical simulations were performed using ANSYS Fluent 17.0. The result of numerical simulation showed that the most stable combustion is obtained in meso-scale combustor by using flame holder in the form of perforated plate type II at higher reactant velocity. In addition, the combustor with perforated plate flame holder type II also produces a higher flame temperature at the same reactant speed. These phenomena occured due to the temperature distribution into the reactans is more uniform and the recirculation heats into the reactans is better than the combustor with perforated plate flame holder type I. Flame and combustor walls temperatures increased with increasing recirculation heats.
机译:进行该研究以确定中间燃烧器内的燃烧稳定性和火焰温度,采用数值方法或计算流体动力学(CFD)在燃烧器出口侧的穿孔板火焰保持器和燃烧气体温度的变化。中间鳞片燃烧器由两块石英玻璃管制成,长度为20毫米和10毫米。每个石英玻璃管的内径为3.5mm,壁厚为0.7mm。由铜制成的两种穿孔板火焰保持器,即穿孔板型I和穿孔板II型,插入两个石英玻璃管之间。丁烷(C4H10)和空气分别用于燃料和氧化剂。使用ANSYS FLUENT 17.0进行数值模拟。数值模拟的结果表明,通过在更高的反应物速度下使用穿孔板型II形式的火焰保持器在中间型燃烧器中获得最稳定的燃烧。另外,具有多孔板火焰保持器II型的燃烧器也以相同的反应物速度产生更高的火焰温度。由于温度分布到反应体中的温度分布更均匀,并且再循环到反应中的再循环热比具有多孔板火焰保持器类型I的燃烧器更好。火焰和燃烧器壁温度随着再循环热量的增加而增加。

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