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- 28/10/1991
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- Publication date
- 14/05/1992
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- 01/01/1989
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- 01/01/1991
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- 01/01/2009
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No full text将闪蒸系统发电与双工质循环发电联合,形成一种特殊的能量转换系统,对其进行详细分析,并建立该联合地热电站热力计算的数学模型,以此对电站的功率及效率进行了计算与分析,从中确定该系统的最佳闪蒸温度和由此温度导出的最佳设计参数。计算结果还表明,对给定温度为110℃的地热水资源,当环境冷却水平均温度为28℃时,闪蒸-双工质循环联合发电的最大总功率比闪蒸系统或双工质循环单独发电时的最大功率要大20%以上。此外,电站还生产约60℃的热水以供直接利用
- Publication venue
- Publication date
- 01/01/1989
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- 01/01/1986
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- 01/01/2012
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No full text通过建立双工质循环发电系统的计算模型和理论分析系统热力过程,对双工质循环发电系统中蒸发器的最佳蒸发温度以及蒸发器和凝汽器的最佳端部温差进行了优化选择。计算结果表明,最佳蒸发温度除与热水初温和冷凝温度有关外,也与端部温差有关,并随之增加而减少。在热水初温130℃及冷凝温度48℃下,得到蒸发器及凝汽器的端部温差优化值均为6℃,对应的最佳蒸发温度为87℃
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- 01/01/1978
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- 01/01/1986
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No full text