Table 2.
Comparative analysis of the advantages between the proposed AI-based UPQC system and recent research.
| Feature | Proposed AI-UPQC System | Recent Research Works |
|---|---|---|
| Control Strategy | ANN with Lyapunov optimization for both shunt and series APF control | NARMA-L2 Controller and PI Controller with Adaptive Lizard Algorithm5 |
| Power Quality Improvement | Reduces THD below 1%, VUF from 1.5–0.8%, Unity power factor correction | Only partial improvement in THD and power factor using conventional methods5 |
| Response Time | 40% faster dynamic response with optimized control | Limited by fixed algorithm configurations5 |
| Adaptability | Real-time adaptation to varying load conditions using AI-driven control | Requires initial configuration and manual parameter tuning5 |
| Implementation Complexity | Plug-and-play capability with model-free control | Complex configuration requirements and control parameter settings31 |
| Integration Capability | Compatible with renewable energy sources and smart grid systems | Limited integration capabilities with modern power systems29 |
| Cost Effectiveness | Reduced maintenance costs and improved energy efficiency (95%) | Higher operational costs due to fixed control algorithms30 |
| Stability | Enhanced system stability through Lyapunov optimization | Stability issues under varying load conditions29,34 |