Impact analysis of time‐varying voltage‐dependent load models on hybrid DG planning in a radial distribution system using analytical approach

This paper investigates the impact of time‐varying voltage‐dependent load models on hybrid distributed generation planning studies. Firstly, a multi‐objective index is constructed with indices namely real and reactive power loss index, voltage deviation index, and mega‐volt‐ampere capacity index wit...

Full description

Saved in:
Bibliographic Details
Published inIET renewable power generation Vol. 15; no. 1; pp. 153 - 172
Main Authors M.L., Merlin Sajini, S., Suja, S., Merlin Gilbert Raj
Format Journal Article
LanguageEnglish
Published Wiley 01.01.2021
Subjects
Online AccessGet full text

Cover

Loading…
More Information
Summary:This paper investigates the impact of time‐varying voltage‐dependent load models on hybrid distributed generation planning studies. Firstly, a multi‐objective index is constructed with indices namely real and reactive power loss index, voltage deviation index, and mega‐volt‐ampere capacity index with an objective of reduction of real and reactive power loss, voltage profile improvement, and decreased line loading. The multi‐objective index derived is minimised to locate the distributed generation. Secondly, the analytical expression is obtained to size the distributed generation units with the time‐varying voltage‐dependent load models and probabilistic nature of solar and wind generation. Finally, the impact of load models with the generation effects is separately analysed for PV/wind (hybrid) distributed generation planning. The proposed perspective was validated on the IEEE 33‐bus, IEEE 69‐bus radial distribution network, and a real 16‐bus distribution substation for its effectiveness because the distributed generators are placed in the distribution side of an electrical network. The outcomes reveal that the distributed generation allocation for time‐varying voltage‐dependent load model and probabilistic nature of solar and wind has significant impacts on the distribution system by reducing real and reactive power loss, improving voltage deviation and reduced mega‐volt‐ampere intake.
ISSN:1752-1416
1752-1424
DOI:10.1049/rpg2.12013