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Development of a Hybrid Powerplant for Kuwait: The Simultaneous Production of Power, Fresh Water and Cooling

机译:科威特混合动力装置的开发:电力,淡水和冷却的同时生产

摘要

The harsh summer months of Kuwait combined with massive urbanisation projects, population growth and generous subsidies resulted in a rapid increase in electricity and freshwater consumption over the past 30 years. This led the government to invest heavily in large and capital intensive cogeneration powerplants that generate electricity via steam turbines and produce desalinated seawater through the utilisation of the multi-stage flash (MSF) desalination process. Air-conditioning (A/C) load accounts for about 70% of electric peak-load during summer. As a result, Kuwait consumes annually millions of barrels of oil and tons of natural gas that can be otherwise exported or saved for the future as a strategic commodity.The main objective of this research is to develop, model and recommend an optimum hybrid powerplant configuration and operation strategy for Kuwait that can simultaneously satisfy the demand for electricity, freshwater and cooling based on minimum fuel consumption. This is achieved by modelling and simulation of steam Rankine cycle, MSF water desalination and absorption refrigeration systems (ARSs) in Matlab to estimate their steam consumption. Reverse osmosis (RO) desalination and vapour-compression A/C are linked to the hybrid simulation program via their electricity consumption.Simulations show that during the hybrid configuration power-RO-AR is the most viable for Kuwait. During the winter months of January, February and December the optimum operation strategy with minimum fuel cost is the power-RO. On the other hand, operating the powerplant in the power-RO-AR hybrid mode during summer results in minimum fuel cost. The total annual fuel cost savings resulting from modifying the Doha West (DW) powerplant configuration and operation strategy are estimated to be about $363 million. This amounts to savings of about 8 million barrels of oil and 114 million m3 of natural gas per year. Furthermore, the payback period of hybridising the DW powerplant by adding RO desalination and AR system is one year with net savings of $127 million in the second year of operation.
机译:科威特夏季严酷的几个月,再加上大规模的城市化项目,人口增长和慷慨的补贴,导致过去30年中电力和淡水消耗量迅速增加。这导致政府大量投资于大型和资本密集型热电联产发电厂,这些发电厂通过蒸汽轮机发电,并利用多级闪蒸(MSF)脱盐工艺生产淡化海水。夏季,空调(A / C)负荷约占电高峰负荷的70%。结果,科威特每年消耗数百万桶石油和天然气,这些石油和天然气可以作为战略商品出口或保存,以备将来之用。本研究的主要目的是开发,建模和推荐最佳混合动力装置配置以及科威特的运营策略,该策略可以基于最小的燃料消耗量同时满足电力,淡水和冷却的需求。这是通过在Matlab中对蒸汽朗肯循环,MSF水脱盐和吸收式制冷系统(ARS)进行建模和仿真来估算其蒸汽消耗来实现的。反渗透(RO)海水淡化和蒸气压缩A / C通过其电耗与混合仿真程序关联。仿真表明,在混合配置期间,功率RO-AR是科威特最可行的。在1月,2月和12月的冬季,使用最低燃油成本的最佳运行策略是power-RO。另一方面,在夏季以动力-RO-AR混合动力模式操作动力装置可降低燃油成本。修改多哈西部(DW)电厂的配置和运行策略后,每年可节省的总燃料成本约为3.63亿美元。每年可节省约800万桶石油和1.14亿立方米天然气。此外,通过增加反渗透海水淡化和增容系统将DW电厂混合动力的投资回收期为一年,在运营的第二年净节省了1.27亿美元。

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  • 作者

    Hussain Hussain J.;

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  • 年度 2010
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  • 原文格式 PDF
  • 正文语种 {"code":"en","name":"English","id":9}
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