Enhancing gas turbine performance by intake air cooling using an absorption chiller

Heat Recovery Systems and CHP Pub Date : 1995-01-01 Epub Date: 2003-03-05 DOI:10.1016/0890-4332(95)90036-5
B. Mohanty, G. Paloso Jr.
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引用次数: 89

Abstract

The performance of gas turbines, operated either as a simple cycle or a combined cycle, is critically constrained by the prevailing ambient temperature, particularly in arid and tropical climates. This paper investigates the option of cooling the intake air to the compressor of the gas-turbine system using an absorption chiller in order to increase the gas turbine capacity. High-temperature waste heat from the exhaust gas may be utilized to produce steam in a recovery boiler. Part of the steam produced could then be used to drive a lithium-bromide double-effect absorption chiller which in turn could cool the incoming air. An analysis carried out by taking the weather data of Bangkok (Thailand) indicates that reducing the temperature from ambient condition to 15°C could help to increase the instantaneous power output between 8 and 13%. As an outcome, as much as 11% additional electricity could be generated from the same gas turbine power plant.

A simple economic assessment indicates that the proposed scheme will require a minimal investment as compared to the commissioning cost of a new gas turbine unit to meet the corresponding capacity increment. The latter will need nearly four times higher initial cost than the amount estimated for the proposed scheme. Thus, implementation of such a system would significantly abate the negative impact of the ambient temperature, while providing an economically and environmentally attractive option for energy producers in most developing nations of the world which are located in arid and tropical zones.

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利用吸收式冷却器进气冷却,提高燃气轮机性能
燃气轮机的性能,无论是作为一个简单的循环或联合循环运行,都受到当时环境温度的严重限制,特别是在干旱和热带气候下。本文研究了采用吸收式制冷机对燃气轮机压缩机进气进行冷却的方案,以提高燃气轮机的制冷量。废气中的高温废热可以用来在回收锅炉中产生蒸汽。产生的部分蒸汽可以用来驱动溴酸锂双效吸收式制冷机,从而冷却进入的空气。对泰国曼谷的天气数据进行的分析表明,将温度从环境条件降低到15°C可以帮助增加8%到13%的瞬时功率输出。结果是,同样的燃气轮机发电厂可以产生多达11%的额外电力。一项简单的经济评估显示,与新燃气轮机机组的调试成本相比,拟议方案所需的投资将最少,以满足相应的容量增量。后者所需的初始费用将比拟议方案的估计费用高出近四倍。因此,这种系统的实施将大大减轻环境温度的不利影响,同时为世界上大多数位于干旱和热带地区的发展中国家的能源生产者提供经济和环境上有吸引力的选择。
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Editorial Volume contents Exergy analysis of radial inflow expansion turbines for power recovery A mixed cycle for converting heat to mechanical work The exergy carry-over index for a utility system
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