A novel methodology for power loss allocation of both passive and active power distribution systems
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Ambika Prasad Hota
,
Sivkumar Mishra
,
Debani Prasad Mishra
Abstract
This paper presents a new active power loss allocation (LA) scheme for fair allocation of losses among the end-user with due consideration to deregulation in power supply. In this deregulated environment, the developed technique assigns losses judiciously because it has simplified the difficulties lying with the division of cross-term power loss equation analytically without any assumptions and approximations. Further, it establishes a direct relationship between two end-voltages of a branch and its subsequent load currents, in terms of node-injected complex powers. This LA scheme assigns losses to the network participants with due consideration to their demands, power factors, and geographical locations in the network. Again, the strategy followed for remuneration of distributed generators (DGs) awards all benefits of network loss reduction (NLR) to the DG owners in terms of incentives/penalties after analyzing their actual impact towards system loss reduction. The effectiveness of the proposed method is not only investigated at different load levels but also with various types of DG power injection using a 33-bus radial distribution network (RDN) with/without DGs. The comparison results obtained signify the novelty of the present technique in contrast to other discussed established methods.
Funding source: Woosong University’s Academic Research Funding – 2021
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Author contributions: All the authors have accepted responsibility for the entire content of this submitted manuscript and approved submission.
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Research funding: This research work was supported by “Woosong University’s Academic Research Funding – 2021.”
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Conflict of interest statement: The authors declare no conflicts of interest regarding this article.
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© 2021 Walter de Gruyter GmbH, Berlin/Boston
Articles in the same Issue
- Frontmatter
- Research Articles
- Solving realistic reactive power market clearing problem of wind-thermal power system with system security
- A novel methodology for power loss allocation of both passive and active power distribution systems
- A simple network reduction technique for large autonomous microgrids incorporating an efficient reactive power sharing
- An adaptive, observer-based switching method for B4 inverters feeding three-phase induction motors
- Analysis and evaluation of two short-term load forecasting techniques
- Power quality improvement in a photovoltaic based microgrid integrated network using multilevel inverter
- Comparison between flexible AC transmission systems (FACTs) and filters regarding renewable energy systems harmonics mitigation
- Evaluating the impact of Khanh Son power plant on Danang Distribution Network
- Fast valving automation setting using HRTSim
- Mathematical modeling of polymer dielectric strength considering filling concentration
- Special action on high quality development of renewable energy in Northeast China: market implementation initiatives and suggestions
- Coordinated power management and control of renewable energy sources based smart grid
Articles in the same Issue
- Frontmatter
- Research Articles
- Solving realistic reactive power market clearing problem of wind-thermal power system with system security
- A novel methodology for power loss allocation of both passive and active power distribution systems
- A simple network reduction technique for large autonomous microgrids incorporating an efficient reactive power sharing
- An adaptive, observer-based switching method for B4 inverters feeding three-phase induction motors
- Analysis and evaluation of two short-term load forecasting techniques
- Power quality improvement in a photovoltaic based microgrid integrated network using multilevel inverter
- Comparison between flexible AC transmission systems (FACTs) and filters regarding renewable energy systems harmonics mitigation
- Evaluating the impact of Khanh Son power plant on Danang Distribution Network
- Fast valving automation setting using HRTSim
- Mathematical modeling of polymer dielectric strength considering filling concentration
- Special action on high quality development of renewable energy in Northeast China: market implementation initiatives and suggestions
- Coordinated power management and control of renewable energy sources based smart grid
