Authors :
M.M Muhammad; Abdulsalam B. Muhammad; Bukar U. Musa; Lawan Dauda
Volume/Issue :
Volume 8 - 2023, Issue 12 - December
Google Scholar :
http://tinyurl.com/49ykjzvk
Scribd :
http://tinyurl.com/47uhz5eb
DOI :
https://doi.org/10.5281/zenodo.10464623
Abstract :
The optimal location and sizing of Distributed
Generation (DG) are crucial factors in integrating DGs
into a network to minimize power losses and improve the
voltage profile. This paper presents a hybridized solution
that combines the Crow Search Algorithm (CSA) and
Smell Agent Optimization (SAO) algorithm for
determining the optimal location and sizing of DGs. The
CSA, SAO, and the proposed CSA-SAO method were
modeled and applied to validate their effectiveness using
the standard IEEE-33 test bus. The results were
compared with the base case scenario, which did not
include DGs.
For the 33-bus system, the CSA method achieved a
37.54% reduction in system losses and a 40.99%
improvement in the overall voltage profile. The SAO
method resulted in a 45.43% reduction in losses and a
54.88% improvement in the average voltage profile. The
proposed hybrid CSA-SAO method demonstrated even
better performance, with a 47.56% reduction in losses
and a 63.47% improvement in the average voltage
profile. This comparison indicates that the proposed
hybrid model is valid for solving optimal DG allocation
problems. The results suggest that combining the CSA
and SAO algorithms in a hybrid approach produces
superior results compared to using the methods
independently.
Keywords :
Crow Search Algorithm; Smell Agent Optimization; Voltage Profile; Power Losses; Distributed Generation.
The optimal location and sizing of Distributed
Generation (DG) are crucial factors in integrating DGs
into a network to minimize power losses and improve the
voltage profile. This paper presents a hybridized solution
that combines the Crow Search Algorithm (CSA) and
Smell Agent Optimization (SAO) algorithm for
determining the optimal location and sizing of DGs. The
CSA, SAO, and the proposed CSA-SAO method were
modeled and applied to validate their effectiveness using
the standard IEEE-33 test bus. The results were
compared with the base case scenario, which did not
include DGs.
For the 33-bus system, the CSA method achieved a
37.54% reduction in system losses and a 40.99%
improvement in the overall voltage profile. The SAO
method resulted in a 45.43% reduction in losses and a
54.88% improvement in the average voltage profile. The
proposed hybrid CSA-SAO method demonstrated even
better performance, with a 47.56% reduction in losses
and a 63.47% improvement in the average voltage
profile. This comparison indicates that the proposed
hybrid model is valid for solving optimal DG allocation
problems. The results suggest that combining the CSA
and SAO algorithms in a hybrid approach produces
superior results compared to using the methods
independently.
Keywords :
Crow Search Algorithm; Smell Agent Optimization; Voltage Profile; Power Losses; Distributed Generation.