大规模地下高压直流输电管道:对电网演变的影响

R. Faulkner, R. Todd
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引用次数: 5

摘要

Elpipes是聚合物绝缘的地下高压直流电力线,使用相对刚性的挤压导体,其设计具有比架空电力线更高的容量和效率。与电缆相比,Elpipes可以使用更多的导体,但也比高压直流电缆有更多的接头。elpipes的高效率是由于需要在保持被动冷却的同时最大限度地减少散热。最大限度地减少废热生产是至关重要的,因为散热限制了产能。对于325-800kV直流电管,我们选择了每1000公里1%损耗的设计基础,比架空800kv直流线路好三倍左右,并且在考虑高温超导线路低温冷却消耗的能量后,与高温超导(HTS)线路相似。这种高效率可以使大陆范围内的电力传输在可接受的损失下实现,使用全埋铝管道输送高达12吉瓦的电力。表面安装的elpipes可以提供至少24gw的功率,而内部冷却传输能力高达200gw是可行的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Massive underground HVDC transmission via elpipes: Implications for grid evolution
Elpipes are polymer-insulated underground HVDC power lines that use relatively rigid extruded conductors designed for higher capacity and efficiency than is practical for overhead power lines. Elpipes can use far more conductor than cables, but also have more splices that an HVDC cable. The high efficiency of elpipes is motivated by the need to minimize heat dissipation while maintaining passive cooling. Minimizing waste heat production is critical since heat dissipation limits capacity. For a 325–800kV DC elpipe, we have selected a design basis of 1% loss per 1000 km, about three times better than an overhead 800kVDC line, and similar to “high temperature” superconducting (HTS) lines after accounting for the energy HTS lines consume for cryogenic cooling. This high efficiency could enable continental scale power transfers with acceptable loss, using fully buried aluminum elpipes carrying up to 12 GW. Surface mounted elpipes can deliver power up to at least 24 GW, whereas with internal cooling transfer capacities up to 200 GW are feasible.
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