首页> 外文会议>ASME International Conference on Energy Sustainability;ASME Heat Transfer Conference >AN ENERGETIC AND EXERGOECONOMIC ANALYSIS OF A CCHP SYSTEM WITH MICRO GAS TURBINE, ORGANIC RANKINE CYCLE AND AMMONIA-WATER ABSORPTION REFRIGERATION CYCLE
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AN ENERGETIC AND EXERGOECONOMIC ANALYSIS OF A CCHP SYSTEM WITH MICRO GAS TURBINE, ORGANIC RANKINE CYCLE AND AMMONIA-WATER ABSORPTION REFRIGERATION CYCLE

机译:带有微燃气轮机,有机兰金循环和氨水吸收制冷循环的CCHP系统的能量和经济经济学分析

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Combined cooling, heating and power generation (CCHP) systems can be utilized for commercial or multi-family residential buildings as efficient and reliable means to satisfy building power requirements and thermal loads. In the present paper, a CCHP system consist of a Bryton cycle, an Organic Rankine cycle (ORC) and an absorption Ammonia-water cycle is considered. A detailed model is developed via MATLAB to assess the performance of the considered cycle from energy, exergy and economic perspectives. Appropriate ranges for inputs are considered and the first law efficiency, second law efficiency and ECOP of the cycle are determined as 77.17%, 33.18% and 0.31 respectively for the given inputs. Exergy destruction rates are found to be greatest primarily in the generator and the absorber of refrigeration cycle followed by the combustion chamber. The total exergy destruction rate in the system is found as 5311.51 kW. The exergoeconomic analysis is performed using SPECO approach to evaluate cost flow rate equations of the complete system and its individual components. Summation of capital investment cost rates and cost rates associated with the exergy destruction for the whole system is found as $18.245 per hour. A parametric study is also performed to provide an understanding on the effect of total pressure ratio and turbine inlet temperature of ORC on the performance of the system.
机译:冷却,加热和发电组合(CCHP)系统可用于商业或多户住宅建筑,作为满足建筑物电力需求和热负荷的有效且可靠的手段。在本文中,CCHP系统由一个Bryton循环,一个有机朗肯循环(ORC)和一个吸收氨水循环组成。通过MATLAB开发了详细的模型,以从能源,火用和经济的角度评估所考虑的循环的性能。考虑输入的适当范围,对于给定输入,该周期的第一定律效率,第二定律效率和ECOP分别确定为77.17%,33.18%和0.31。发现本能破坏率最大的主要是在发电机和制冷循环的吸收器,然后是燃烧室。发现系统中的总火用破坏率为5311.51 kW。使用SPECO方法进行能效经济分析,以评估整个系统及其各个组成部分的成本流率方程。整个系统的资本投资成本率和与火用破坏相关的成本率之和为18.245美元/小时。还进行了参数研究,以了解ORC的总压力比和涡轮进口温度对系统性能的影响。

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