2021
DOI: 10.3389/fenrg.2021.752571
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Practical Method for Data-Driven User Phase Identification in Low-Voltage Distribution Networks

Abstract: For low-voltage distribution networks (LVDNs), accurate models depicting network and phase connectivity are crucial to the analysis, planning, and operation of these networks. However, phase connectivity data in the LVDN are usually incorrect or missing. Wrong or incomplete phase information collected could lead to unbalanced operation of three-phase distribution systems and increased power loss. Based on the advanced measurement infrastructure (AMI) in the development of smart grids, in this study, a novel da… Show more

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Cited by 5 publications
(3 citation statements)
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“…It is critical to ensuring the quality of the power supply and improving the consumer experience. However, the consumer phase connectivity information in LVDN is generally missing or inaccurate, which has become a bottleneck that restricts the planning and operation management of LVDN [3]. With the rapid application of smart meters in LVDN, a large number of researchers have studied the phase identification of LVDN by analyzing the data from smart meters.…”
Section: A Setsmentioning
confidence: 99%
“…It is critical to ensuring the quality of the power supply and improving the consumer experience. However, the consumer phase connectivity information in LVDN is generally missing or inaccurate, which has become a bottleneck that restricts the planning and operation management of LVDN [3]. With the rapid application of smart meters in LVDN, a large number of researchers have studied the phase identification of LVDN by analyzing the data from smart meters.…”
Section: A Setsmentioning
confidence: 99%
“…Voltage stability [175]- [178] Security and cascading failure assessment [179]- [182] Transient stability [183]- [186] Building-level event detection Occupancy and activity [187]- [190] Fault diagnosis in appliances [191]- [194] Optimal power flow End-to-end learning [195]- [198] Learning-augmented [199]- [202] Energy management & control Demand side management Heating/Cooling loads [203]- [206] Demand-response [207]- [210] Buildings [211]- [214] Communities [215]- [218] Microgrids [219]- [222] Load frequency control [223]- [226] Voltage control [227]- [230] Grid variables estimation/ identification Phase [231]- [234] Topology and lines parameters [235]- [238] State estimation [239]- [242] Voltage calculation [243]- [246] FIGURE 9: Further decomposition of analytics services (II). Four indicative references are given for each analytics category.…”
Section: Analytics Cybersecuritymentioning
confidence: 99%
“…• Grid variables estimation: Data-driven methods that leverage the deployment of AMI to calculate grid variables/ parameters in conditions of partial or no awareness of grid topology-related information without using model-based techniques. In the literature, four distinct services are identified: phase estimation (identify the phase of grid-connected loads) [231]- [234], topology and lines parameters estimation (estimate grid parameters when missing) [235]- [238], state estimation of the partial observable grid (estimation of branch currents and bus voltages) [239]- [242], and calculation of voltages (where no information about grid topology exists) [243]- [246].…”
Section: Analytics Cybersecuritymentioning
confidence: 99%