NOVEL HYBRID ASIATIC CHEETAH - GOBI BEAR OPTIMIZATION AND INTEGRATED HAMERKOP - ZEUGODACUS FULVOABDOMINALIS ALGORITHM FOR POWER LOSS DIMINUTION AND VOLTAGE STABILITY ENLARGEMENT
DOI:
https://doi.org/10.55766/sujst9167Keywords:
Asiatic cheetah, Gobi bear, Prey, Hamerkop, Zeugodacus fulvoabdominalisAbstract
The Asiatic cheetah optimization algorithm is grounded on the besieged stalking approach of the Asiatic cheetah, which comprises an order of activities: probing for prey, patiently waiting for the accurate instant to attack, rapidly initiating the attack, receding from the prey, and coming back to the habitat. Numerous intellectual activities of the Gobi bear, such as tracking the cluster, detecting food sources, and navigating the terrain, are considered in the design. Gobi bear utilizes lever odour marking and snuffling activities in the habitant. In the unique method of passaging by Gobi bears, there will be repeated odour marking, confirming earlier marked prints. The Asiatic cheetah optimization algorithm is hybridized with the Gobi bear optimization algorithm. Hamerkop enactment and approach in the course of pestering is an intelligent method, and this habit has been imitated to model the procedure. In Zeugodacus fulvoabdominalis, owing to their very tremendous sightedness and conjoint compassionate deeds Zeugodacus fulvoabdominalis will discover the sustenance deprived of exertion. Hamerkop optimization algorithm integrated with Zeugodacus fulvoabdominalis optimization algorithm. The Hybrid Asiatic Cheetah - Gobi Bear Optimization (HACGB) algorithm and the Integrated Hamerkop - Zeugodacus fulvoabdominalis Optimization (IHZFO) algorithm are substantiated using seven benchmark functions and the IEEE 30 and 57 bus systems.
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