Table 21.
Comparison of recent optimization techniques (2023–2025).
| Optimizer/study | Year | Key idea/mechanism | Strengths | Limitations (why not used here) | Reference |
|---|---|---|---|---|---|
| Adaptive-mechanism GWO (AM-GWO) | 2025 | Introduces adaptive exploration–exploitation balancing with dynamic control parameters | Excellent performance for high-dimensional feature selection; strong convergence | Higher computational load; requires fine parameter tuning; best suited for offline / GPU-supported tasks | J. Wang et al.58 |
| Adaptive-weight GWO (AWGWO) | 2024 | Weight-adjusted wolf hierarchy to enhance search diversity | Effective for security domains (e.g., malware detection); improves convergence | Increased hyperparameters; slower iteration time; unsuitable for browser-side deployment | Zhang, Y., & Cai, Y59. |
| EGSO-CNN deep-learning optimizer | 2025 | Evolutionary optimizer integrated with CNN-based phishing detection | Very high accuracy; robust phishing URL detection | Requires DL models + GPU; unsuitable for lightweight real-time inference | Ragab, M., et al.60 |
| Firefly–GWO hybrid | 2024 | Combines swarm intelligence (firefly) with GWO for improved feature search | Good results in phishing detection; strong global search | Computationally expensive; hybrid models unsuitable for in-browser execution | O. S. Qasim et al.61 |
| Gradient-optimized TSK Fuzzy Model | 2025 | Uses optimization-driven fuzzy rules for explainable phishing detection | Highly explainable; competitive performance | Model complexity; larger memory footprint; not feasible for extension-based deployment | M. Sieverding, N. Steffen, and K. Cohen62 |
| Standard binary GWO (used in this work) | – | Simple binary position encoding with alpha–beta–delta leadership | Lightweight, fast, low memory; stable with mixed URL + visual features; ideal for browser extensions | Slightly lower accuracy than advanced hybrids in offline tests | This paper |