Abstract
This paper derives the mathematical expressions for computation of the load impedance magnitude, such that rated cable current is imposed at the sending end, with sending end voltage as the reference phasor. Thereby, the variation in
maximum power transferred to the receiving end of a medium voltage cable link is described for varying link length, conductor cross-sectional area and load power factor. The percentage error in transmitted power computation due to simplification
by neglecting the cable capacitance is quantified. The merit of the developed theory for future use is highlighted.
maximum power transferred to the receiving end of a medium voltage cable link is described for varying link length, conductor cross-sectional area and load power factor. The percentage error in transmitted power computation due to simplification
by neglecting the cable capacitance is quantified. The merit of the developed theory for future use is highlighted.
Original language | English |
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Title of host publication | 2016 IEEE International Power Electronics and Motion Control Conference (PEMC) |
Place of Publication | Piscataway |
Publisher | IEEE |
Pages | 425-429 |
Number of pages | 5 |
ISBN (Print) | 978-1-5090-1798-0 |
DOIs | |
Publication status | Published - 2016 |
Event | IEEE PEMC 2016: 17th International Conference on Power Electronics and Motion Control - Varna, Bulgaria Duration: 25 Sept 2016 → 28 Sept 2016 Conference number: 17 |
Conference
Conference | IEEE PEMC 2016 |
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Country/Territory | Bulgaria |
City | Varna |
Period | 25/09/16 → 28/09/16 |
Keywords
- Capacitance
- Conductors
- Impedance
- Medium voltage
- Power cables
- Reactive power
- Voltage control
- ac link
- analysis
- cable
- capacity
- distribution grid
- medium voltage receiving end
- sending end
- transmitted power