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Influence of Temperature and Pressure Change on Adiabatic and Isothermal Methanation Processes

机译:温度和压力变化对绝热和等温甲烷化过程的影响

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Energy plans of many countries anticipate an increased use of biomethane for energy supply, i.e., in power and heat production as well as in the transport sector. Existing infrastructure of natural gas storage, supply and application provides a good platform to facilitate transfer to biomethane utilization on a larger scale. One key element of the biomethane system is the upgrade of the biomass-derived synthesis gas originating from different sources, to a quality of natural gas (SNG - Synthesis Natural Gas) via the methanation process for further injection into the natural gas grid.. The maximisation of efficiency of the methanation process is of critical importance in order to make biomethane technology viable for wider application. The aim of the study was to improve efficiency of the methanation process by finding the optimum temperatures and pressure. Theoretical modelling of adiabatic and isothermal methanation processes by using thermodynamic equilibrium calculations was introduced as a method for the study. The results show the impact of temperature and pressure changes on the overall efficiency of methane production. It can be concluded from the study that knowledge about the relation between temperature, pressure and the efficiency of the methanation process makes it possible to optimize the process under various biomass synthesized gas input conditions.
机译:许多国家的能源计划预计将更多地使用生物甲烷进行能源供应,即在电力和热力生产以及运输部门。现有的天然气储存,供应和应用基础设施提供了一个良好的平台,可促进大规模转移至生物甲烷利用。生物甲烷系统的一个关键要素是通过甲烷化工艺将源自不同来源的生物质衍生的合成气升级为高质量的天然气(SNG-合成天然气),以进一步注入天然气网格。甲烷化工艺效率的最大化对于使生物甲烷技术能够广泛应用是至关重要的。该研究的目的是通过找到最佳温度和压力来提高甲烷化过程的效率。介绍了利用热力学平衡计算对绝热和等温甲烷化过程进行理论建模的方法。结果表明温度和压力变化对甲烷生产总效率的影响。从研究中可以得出结论,有关温度,压力和甲烷化过程效率之间关系的知识使在各种生物质合成气输入条件下优化过程成为可能。

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