ORC、ABRC、氢气一体化联合循环电厂新模式

Baydaa Bo Dakkah, I. Sultanguzin, Y. Yavorovsky, Nadezhda A. Belekhova
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摘要

本文研究了一种驱动布雷顿循环的新型联合发电系统。建议的电厂动力系统主要由联合动力循环、有机朗肯循环和吸收式冷却系统组成。该系统使用的燃料是100%的甲烷和80%甲烷和20%氢气的混合物。发展可持续能源的主要因素是提高现有资源利用中的能源转换效率和尽量减少对环境的影响,而余热回收是实现这些目标的重要途径之一。在这些系统中,回收的余热用于发电、加热或冷却。利用热力学方程建立了所设计系统的数学模型。从环境和能源的角度对所提出系统的热性能进行了分析和比较。因此,建议使用最佳系统,以实现最高的发电量和最小的环境破坏。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Novel Model of Integrated Combined Cycle Power Plants with ORC, ABRC and Hydrogen
In this paper, a novel combined system driving a Brayton Cycle has been studied for power generation. The suggested power systems plants basically consist of combined power cycle, organic Rankine cycles, and absorption cooling system. The fuel used in the system is 100% methane and a mix of 80% methane and 20% hydrogen. The main factors in the development of sustainable energy are increasing the efficiency of energy conversion in the use of available resources and minimizing environmental impacts, where waste heat recovery is one of the important ways to achieve these goals. In these systems, the recovered waste heat was used for power production, heating, or cooling. Thermodynamic equations were used to develop a mathematical model of the system that was designed. An analysis and comparison of the thermal performance of the proposed systems from an environmental and energy point of view was carried out. Accordingly, the best system was proposed for use in order to achieve the highest power production and the least environmental damage.
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