Voltage transient management for Alternating Current trains with vacuum circuit breakers

IF 1.9 4区 工程技术 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC IET Electrical Systems in Transportation Pub Date : 2021-07-07 DOI:10.1049/els2.12034
Thomas Moore, Felix Schmid, Pietro Tricoli
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引用次数: 7

Abstract

Alternating current power supplies and rolling stock with 25 kV (50 or 60 Hz) and 15 kV (16.7 Hz) traction systems do not have the characteristics and behaviour of a typical three-phase medium-voltage distribution system. Switching inductive loads with a vacuum circuit breaker (VCB) in MV traction systems poses familiar challenges as well as some unique challenges, such as the crossing of phase change neutral sections. Transformers represent highly inductive loads due to their iron core and, thus, the consequences of energizing and disconnecting a transformer and dealing with the energy stored in its inductance must be considered within a system context. The authors of this study consider two transient phenomena associated with switching single-phase, medium voltage, AC traction transformer loads using a VCB on railway rolling stock: (i) switching transients that occur when disconnecting a transformer, particularly if lightly loaded and (ii) pre-ignition and current inrush that occurs when energizing a transformer. Both phenomena can cause reliability problems, requiring increased system maintenance or resulting in premature failures of system components. The authors review the use of controlled switching and other state-of-the-art methods to prevent or limit voltage transients when switching a transformer load by means of a VCB. The effective application of such techniques has been demonstrated in previous research or established in practical applications by manufacturers and electrical distribution network companies.

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带真空断路器的交流列车电压瞬态管理
具有25 kV(50或60 Hz)和15 kV(16.7 Hz)牵引系统的交流电源和机车车辆不具有典型三相中压配电系统的特性和性能。在MV牵引系统中,用真空断路器(VCB)切换电感负载既带来了常见的挑战,也带来了一些独特的挑战,例如跨越相变中性段。变压器由于其铁芯而代表高电感负载,因此,必须在系统上下文中考虑给变压器通电和断开变压器以及处理其电感中存储的能量的后果。本研究的作者考虑了与在铁路机车车辆上使用VCB切换单相、中压、交流牵引变压器负载相关的两种瞬态现象:(i)断开变压器时发生的切换瞬态,特别是在负载较轻的情况下;(ii)变压器通电时发生的提前点火和电流浪涌。这两种现象都可能导致可靠性问题,需要增加系统维护或导致系统组件过早故障。作者回顾了在通过VCB切换变压器负载时,使用控制开关和其他最先进的方法来防止或限制电压瞬变。这种技术的有效应用已经在以前的研究中得到了证明,或者在制造商和配电网公司的实际应用中得到了证实。
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来源期刊
CiteScore
5.80
自引率
4.30%
发文量
18
审稿时长
29 weeks
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