Thermal economy simulation study for a carbon capture power plant with combined heat and power based on absorption heat pump technology

热电联产 吸收式热泵 工艺工程 热泵 废物管理 环境科学 发电 化学 热力学 功率(物理) 工程类 机械工程 热交换器 物理
作者
Yifei Yuan,Nini Wang,Jia Zhen-guo,Yuelei Zhang,Genming Zhao,Hongjun Guan,Li Yang,Suoying He,Liqiang Zhang,Ming Gao
出处
期刊:Energy Conversion and Management [Elsevier BV]
卷期号:300: 117958-117958
标识
DOI:10.1016/j.enconman.2023.117958
摘要

The Combined Heat and Power (CHP) system represents an energy-efficient and environmentally-friendly approach to energy utilization. However, in the context of the “carbon peaking and carbon neutrality” strategy, ensuring low-carbon operation of CHP systems becomes imperative. In this study, based on absorption heat pump (AHP), an extraction condensing carbon capture (EC&CC) CHP coupled system and a low-pressure cylinder zero-output carbon capture (LCZ&CC) CHP coupled system are proposed, respectively. Furthermore, under the 100 % turbine heat acceptance (THA) operating condition, a variable operating condition study of heating load and carbon capture capacity is conducted. The results demonstrate that under identical heating load, the EC&CC CHP coupled system has superior thermal economy, with an average reduction of 1011.03 kJ/kWh in heat consumption of power generation and 34.54 g/kWh in coal consumption of power generation compared with the LCZ&CC CHP coupled system; For equivalent carbon capture capacity, the LCZ&CC CHP coupled system has superior thermal economy, with an average reduction of 771.28 kJ/kWh in heat consumption and 26.35 g/kWh in coal consumption of power generation compared with the EC&CC CHP coupled system. The EC&CC CHP coupled system has lower CO2 capture heat consumption, resulting in an average reduction of 135.67 t/h in carbon capture extraction compared with the LCZ&CC CHP coupled system. This study can provide guidance for optimizing the design of carbon capture CHP coupled systems.
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