关于网格惯性的代价

A. Hoskin, S. Garvey, J. Rouse, B. Cárdenas
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引用次数: 1

摘要

惯性在电网稳定中起着重要的作用。当供需之间存在差异时,电网频率将发生变化。惯性会抵制这种变化,并限制频率变化率(RoCoF),使发电站有时间改变其供应以满足需求。传统的火力发电站的发电机和蒸汽轮机有很大的惯性。风能和太阳能等可再生能源往往很少或没有惯性,因此电网惯性已经减少,并将在未来继续减少,从而导致电网稳定性问题。有各种方法可以解决这个问题,包括:更换电网惯性,增加允许的最大RoCoF水平,或最小化电网上最大的发电机或负载。惯性传统上并不是一种交易商品,因为它一直是大型火力发电的副产品。随着非同步发电的增加,这种情况在未来可能会发生变化。制造网格惯性的成本和方法在某种程度上是一个新领域。本文调查了一些创建网格惯性的选项。介绍了一种基于飞轮产生电网惯性和一次频率控制的SHyKESS方法。
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On the Costs of Grid Inertia
Inertia plays an important role in the function of electrical grid stability. When there is a difference between supply and demand grid frequency will change. Inertia resists this change and limits the rate of change of frequency (RoCoF) giving time for power stations to change their supply to match demand. Traditional thermal power stations have significant amounts of inertia in their generators and steam turbines. Renewable energy sources such as wind and solar tend to have little or no inertia and as a result grid inertia has reduced and will continue to do so in the future, causing issues of grid stability. There are various ways to address this problem including: replacing grid inertia, increasing the maximum level of RoCoF allowed, or minimising the largest generator or load on the grid. Inertia hasn't traditionally been a traded commodity as it has been a by-product of large thermal power generation. This is likely to change in the future with the increase in non-synchronous generation. The costs and methods of creating grid inertia are somewhat novel fields. This paper surveys some of the options of creating grid inertia. It also presents SHyKESS which is a flywheel based method of creating grid inertia and primary frequency control.
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