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Thermodynamic Effects on Scale Inhibitors Performance At Multi-flash and Advanced Geothermal Power Systems

机译:多闪热和高级地热动力系统中规模抑制剂性能的热力学效应

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In water-dominated reservoirs, binary and single flash cycle geothermal power systems are widely used for power generation around the world and the reservoirs temperatures generally indicate moderate or moderate-high temperatures at depth. In these systems, controlling and understanding the effects of pressure and temperature changes on geothermal fluids much easier than advanced geothermal systems. Depending on geothermal reservoir rocks, water-rock interaction can be explained and expected scale types can be determined easily and suitable inhibitors may be determined with short-term field tests before start up process. Although energy efficiency higher than binary and single flash systems, power generation from multi-flash (double or triple) and combine (flash systems + binary) systems are still limited in the world. In these systems, reservoir temperatures are observed quite high and water- steam (with gas) phases separated more than one time. It concludes that pressure and temperature dramatically drops after each separation system when geothermal fluids reach to surface. This time the types and compositions of scales may show differences beginning of the production; high-pressure separation to low pressure separation station. The power system may require that different scale inhibitors and different inhibitor dosage points to protect itself.
机译:在水主导的储层中,二元和单闪循环地热动力系统广泛用于世界各地的发电,储存器温度通常表示深度中的中等或中等高温。在这些系统中,控制和理解压力和温度变化对地热流体的影响比高级地热系统更容易。根据地热储存器岩石,可以解释水岩相互作用,并且可以容易地确定预期的尺度类型,并且可以在启动过程之前用短期场测试确定合适的抑制剂。虽然能源效率高于二元和单闪光系统,但多闪光(双或三联)和组合(闪光系统+二进制)系统的发电仍然有限。在这些系统中,观察到储层温度非常高,水 - 蒸汽(有气体)相分离多次。结论,当地热流体达到表面时,压力和温度在每种分离系统后大幅下降。这次尺度的类型和组成可以显示出现的差异;高压分离到低压分离站。电力系统可能需要不同的抑制剂和不同的抑制剂剂量来保护自己。

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