带再热的小型模块化反应堆和燃气轮机组合循环

Robert J. Stakenborghs, G. Kramer
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引用次数: 0

摘要

提出了一种新型的组合式小型模块化反应堆与燃气轮机循环。SMR-GT循环模型使用基本的热力学关系,并与现有的最先进的发电循环进行比较。SMR- gt循环包括一个82兆瓦的SMR循环和一个54兆瓦的燃气轮机循环。热交换器用于从燃气轮机废气中提取能量,以产生过热的主蒸汽,并为低压涡轮下游提供再热。这使得SMR循环的总机组输出功率增加了32 MWe,达到136 MWe。比较了单机SMR、典型联合循环燃气轮机(CCGT)、单机燃气轮机和SMR- gt联合循环的热效率、热率、二氧化碳排放量和净发电量。讨论了SMR-GT循环的几个优点。此外,燃气轮机的快速部署允许发电站在完成更复杂的SMR部分之前提供电力并获得收入。循环的SMR部分还减少了与燃气轮机发电站相关的总体燃料成本波动。
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A Combined Small Modular Reactor and Gas Turbine Cycle With Reheat
A novel combined small modular reactor (SMR) and gas turbine cycle is presented. This SMR-GT cycle is modeled using fundamental thermodynamic relationships and compared to existing state-of-the-art power generation cycles. The SMR-GT cycle includes an 82 MWe SMR cycle that is combined with a 54 MWe gas turbine cycle. A heat exchanger is used to extract energy from the gas turbine exhaust to create superheated main steam and provide reheat downstream of the LP turbine. This results in a 32 MWe increase in the SMR cycle for total unit output of 136 MWe. Comparisons of thermal efficiency, heat rate, CO2 emissions, and net generation are made between a stand-alone SMR, a typical combined cycle gas turbine (CCGT), standalone gas turbine and the combined SMR-GT cycles. Several advantages of the SMR-GT cycle are discussed. In addition, the rapid deployment of a gas turbine allows for a power station to deliver power and earn revenue prior to completion of the more complex SMR portion of the plant. The SMR portion of the cycle also reduces the overall fuel cost volatility associated with gas turbine based power station.
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