Table 1 Summary of existing works.

From: Adaptive dynamic crayfish algorithm with multi-enhanced strategy for global high-dimensional optimization and real-engineering problems

Related work

Methodology

Strength

Weakness

Hu et al. 48

Enhanced hybrid AOA (CSOAOA)

Improves exploitation, avoids local optima, increases convergence accuracy

Imbalanced exploration-exploitation despite improved accuracy, potential for slow convergence in high-dimensional problems

Shen et al. 49

Multi-population evolved WOA (MEWOA)

Increases convergence speed, avoids local optima, competitive performance

May face challenges in extremely high-dimensional problems despite improved convergence speed

Qiao et al. 50

Hybrid AOA-HHO for MTIS

Improves segmentation accuracy, PSNR, SSIM, execution time

Focused on image segmentation, lacks general applicability across other domains

Qiu et al. 51

Improved Gray Wolf Optimization (IGWO)

Improves convergence speed, solution accuracy, escapes local minima

Requires fine-tuning to maintain performance across diverse problems, risk of local optima

Houssein et al. 52

Improved Sooty Tern Optimization Algorithm (mSTOA)

Balances exploration/exploitation, avoids sub-optimal convergence

Control parameter sensitivity may lead to inconsistent performance in complex cases

Wu et al. 53

Variant Ant Colony Optimization (MAACO)

Reduces path length, turn times, improves convergence speed

High computational cost for large-scale problems despite improved path planning performance

Nadimi-Shahraki et al. 54

Enhanced Whale Optimization Algorithm (E-WOA)

Improves population diversity and search strategy

Struggles with maintaining balance in multi-objective tasks, relies heavily on parameter adjustment

Askr et al. 55

Binary Enhanced Golden Jackal Optimization (BEGJO)

Boosts exploration and exploitation, outperforms in classification accuracy

Computationally expensive, may not generalize well to larger datasets despite classification improvements

Ozkaya et al. 56

Adaptive Fitness-Distance Balance ARO (AFDB-ARO)

Balances exploration/exploitation, achieves optimal solutions

May struggle with large-scale problems despite performance in benchmark tests

Yıldız et al. 57

Hybrid AOA-NM

Improves solution quality, avoids local optima traps

Limited applicability outside constrained design problems

Deng et al. 58

Improved Whale Optimization Algorithm (IWOA)

Improves convergence speed, stability, accuracy

Challenges in dealing with complex constraints, potential slow convergence

Tan and Mohamad-Saleh 59

Hybrid Equilibrium Whale Optimization Algorithm (EWOA)

Superior statistical performance, convergence rate, robustness

Improved robustness but limited efficiency in more complex, high-dimensional spaces

Mahajan et al. 60

Hybrid AO-AOA

Effective in high- and low-dimensional problems

limited exploration in certain complex tasks

Qian et al. 61

Hybrid SSACO

Avoids local optima, improves convergence accuracy

Limited exploration capabilities in high-dimensional, non-convex problems

Zhu et al. 62

Enhanced Dung Beetle Optimization (QHDBO)

Improves convergence speed, accuracy, robustness

Still prone to local optima in extremely challenging problems despite overall improvements