Catalytically Stabilized Combustion of Methane

当详细时，包括精确的化学动力学， 超级计算机是流体数值解所必需的。 动力学方程 在本研究中， 研究了甲烷在催化板表面的吸附行为 数值上，与支持的实验程序并行 其他钱。 以这种方式，模型的有效性， 现象将以一种通用的方式进行测试， 预测燃烧技术的发展。 可靠的燃烧预测技术将缓解 未来的设计师的负担和费用 传统的“切割和焊接”方法。 尤其如此 催化反应，因为它们具有更大的潜力， 汽车和燃气涡轮机中燃烧的有效控制 机.

When detailed, accurate chemical kinetics are included, supercomputers are necessary for the numerical solution of fluid dynamics equations. In the present study, the combustion of methane at the surface of a catalytic plate will be studied numerically, in parallel with an experimental program supported on other monies. In this manner, validity of the models for such phenomena will be tested in a generic fashion, providing a leap forward in predictive combustion techniques. Reliable combustion predictive techniques would relieve tomorrow's designers of the burden and expenses of the traditional "cut and weld" approach. This is especially true of catalytic reactions, as they have the potential for a more efficient control of combustion in automobile and gas turbine engines.