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Enterprise AI Analysis: A Geometric Whale Optimization Algorithm with Triangular Flight for Numerical Optimization and Engineering Design

Scientific Reports Article Analysis

A Geometric Whale Optimization Algorithm with Triangular Flight for Numerical Optimization and Engineering Design

The Whale Optimization Algorithm (WOA) faces significant challenges in complex optimization, including premature convergence and imbalanced exploration-exploitation. To address this, we developed the Geometric Whale Optimization Algorithm with Triangular Flight (ESTGWOA), integrating five novel geometric strategies: Good Nodes Set Initialization for diverse populations, Elite Guided Search for balanced exploration, redesigned Spiral-based Encircling Prey and Triangular-based Spiral Hunting for enhanced local search and local optima escape, and Hybrid Gaussian Mutation for increased diversity. A new Sigmoid-based convergence factor also optimizes exploration-exploitation balance. Our comprehensive experiments on 23 benchmark functions and 7 real-world engineering design problems demonstrate that ESTGWOA achieves an outstanding 97.10% overall effectiveness, consistently outperforming state-of-the-art metaheuristic algorithms in accuracy and stability. These results, verified by rigorous statistical tests, position ESTGWOA as a robust and reliable solution for complex continuous engineering design challenges.

Executive Impact & Key Performance Metrics

ESTGWOA's advancements translate directly into superior performance for complex enterprise optimization tasks.

0 Overall Effectiveness (OE)
0 Friedman Rank Across Dimensions
0 Benchmark Functions Outperformed
0 Engineering Design Problems Solved

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

Enhanced Population Initialization for Broader Exploration

The Good Nodes Set (GNS) Initialization technique overcomes the limitations of traditional pseudo-random initialization, which often leads to limited diversity and uneven spatial coverage. By systematically generating uniformly distributed candidate solutions, GNS significantly enhances the quality of the initial population.

Enterprise Relevance: For complex enterprise problems, ensuring a diverse and well-distributed initial solution space is crucial for avoiding premature convergence and discovering truly optimal solutions from the outset.

Intelligent Search Guidance for Balanced Exploration-Exploitation

The Elite Guided Search (EGS) strategy replaces the original WOA's random search by guiding whales towards both the current best solution (elite) and the average position of the entire population. This dynamic approach ensures a more balanced transition between global exploration and local exploitation.

Enterprise Relevance: This mechanism improves the algorithm's convergence speed and accuracy by leveraging collective population intelligence, making search trajectories more purposeful and stable, especially critical in time-sensitive industrial optimization.

Advanced Spiral Strategies for Local Optima Escape

The Spiral-based Encircling Prey (SEP) introduces periodicity and randomness through a cosine oscillation term, enabling deeper local exploration. Further, the Triangular-based Spiral Hunting (TSH) strategy refines this with dynamic scaling and asymmetric disturbances, creating more complex and diversified search paths.

Enterprise Relevance: In multi-modal landscapes common in engineering design, these strategies are vital for preventing entrapment in local optima and continuously exploring better solutions, ensuring robust and comprehensive search capabilities.

Reinforced Diversity and Robustness with Hybrid Mutation

Post-position update, the Hybrid Gaussian Mutation (HGM), based on Differential Evolution, introduces random disturbances of varying scales. This mechanism is critical for increasing population diversity, allowing individuals to escape from locked regions or local optima that might otherwise halt progress.

Enterprise Relevance: This strategy directly combats premature convergence in high-dimensional or rugged optimization landscapes, ensuring the algorithm maintains its exploratory potential even in later stages of optimization, leading to higher quality final solutions.

Dynamic Control of Exploration-Exploitation Balance

A novel Sigmoid-based Convergence Factor (SCF) replaces the traditional linear factor. Its S-shaped curve (slow decline initially, sharp drop in the middle, and slow reduction at the end) dynamically adjusts the exploration-exploitation balance throughout the optimization process.

Enterprise Relevance: This flexible adjustment of search behavior allows ESTGWOA to aggressively explore in early stages, transition efficiently to exploitation, and prevent stagnation, providing a fine-tuned approach to complex problem-solving in dynamic environments.

Enterprise Process Flow: ESTGWOA Methodology

Initialize Population (Good Nodes Set)
Calculate Fitness & Identify Best Solution (X*)
Update Parameters (a, A, C, l, p, SCF)
If p < 0.5 & |A| < 1 (Spiral-based Encircling Prey)
Else (Elite Guided Search)
Else (Triangular-based Spiral Hunting)
Execute Hybrid Gaussian Mutation
Check Boundary Violations
Calculate & Update Best Solution (X*)
Repeat until Max Iterations
Obtain Best Position
97.10% Overall Effectiveness (OE) across Benchmark & Engineering Problems

Comparative Performance: ESTGWOA vs. SOTA Algorithms

Algorithm Average Friedman Rank (Dim=30) Average Friedman Rank (Dim=50) Average Friedman Rank (Dim=100) Key Advantages of ESTGWOA
ESTGWOA 1 1 1
  • Exceptional global search capability
  • Robustness across diverse problem complexities
  • Superior convergence speed and accuracy
  • Effective balance of exploration and exploitation
ZOA 2 2 2
MSWOA 3 3 3
ROA 4 4 4
HHO 5 5 5
WOA (Original) 6 6 6

Engineering Design Case Study: Multi-Disk Clutch Brake Optimization

The Multi-disk Clutch Brake (MDCB) design problem exemplifies the complex challenges in real-world engineering, requiring optimization of geometric and operational parameters to minimize mass/cost while satisfying crucial torque transmission and physical constraints. Its inherently nonlinear and constrained nature makes it a perfect test for advanced metaheuristics.

ESTGWOA's Application: In comparative tests against ZOA, ROA, GWO, AROA, HHO, MWOA, MSWOA, IPSO, and WOA, ESTGWOA consistently demonstrated significantly superior optimization accuracy and stability. Its ability to navigate the complex design landscape led to finding optimal solutions more effectively than other algorithms.

Key Result: ESTGWOA proved to be a highly reliable and effective optimizer for this constrained engineering design problem, highlighting its practical applicability in industrial settings where precision and robustness are paramount.

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Your AI Implementation Roadmap

A typical journey to integrate advanced AI optimization into your enterprise workflows.

Phase 1: Discovery & Strategy

Comprehensive assessment of current systems, identification of key optimization challenges, and strategic planning for AI integration. Define clear KPIs and success metrics.

Phase 2: Proof of Concept (PoC)

Develop and deploy a small-scale, focused PoC using ESTGWOA on a critical, high-impact problem. Validate the algorithm's performance and gather initial ROI data.

Phase 3: Customization & Integration

Tailor ESTGWOA and related AI models to your specific enterprise environment. Seamlessly integrate the solution with existing IT infrastructure and data pipelines.

Phase 4: Scaled Deployment & Training

Roll out the AI solution across relevant departments and workflows. Provide comprehensive training for your teams to ensure smooth adoption and maximize operational benefits.

Phase 5: Continuous Optimization & Support

Ongoing monitoring, performance tuning, and iterative improvements of the AI models. Provide dedicated support and maintenance to ensure sustained high performance and adaptability.

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