Cybersecurity
Advanced artificial intelligence with federated learning framework for privacy-preserving cyberthreat detection in IoT-assisted sustainable smart cities
The paper introduces AAIFLF-PPCD, an advanced AI framework with Federated Learning for privacy-preserving cyberthreat detection in IoT-assisted sustainable smart cities. This model leverages Harris Hawk Optimization for feature selection, a stacked sparse auto-encoder for classification, and Walrus Optimization Algorithm for hyperparameter tuning. It achieves a 99.47% accuracy, outperforming existing models, and significantly reduces processing time to 4.51s, making it a robust, efficient, and privacy-preserving solution for smart city cybersecurity.
Executive Impact & Key Findings
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Deep Analysis & Enterprise Applications
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Focus: Privacy-Preserving Cyberthreat Detection
This section details the methodologies and innovative approaches used to enhance cybersecurity, particularly in IoT-assisted smart cities, by leveraging advanced AI and Federated Learning while safeguarding data privacy.
Enterprise Process Flow
| Model | Accuracy | Processing Time (s) |
|---|---|---|
| AAIFLF-PPCD | 99.47% | 4.51 |
| IRMOFNN-AD | 99.10% | 7.95 |
| HZDA-5G IIoT | 99.33% | 9.80 |
| PSO Ensemble | 98.80% | 8.21 |
| CNN+GRU Model | 87.44% | 14.49 |
| MLP Algorithm | 92.93% | 10.54 |
| kNN Algorithm | 86.88% | 15.58 |
| SVM Classifier | 81.86% | 11.93 |
Real-World Application: Smart City Cybersecurity
The AAIFLF-PPCD model offers a robust solution for securing IoT-assisted sustainable smart cities. By preserving user privacy through Federated Learning and efficiently detecting cyberthreats with high accuracy, it enables critical infrastructure protection. For instance, in a smart grid scenario, early detection of anomalies (e.g., suspicious data injections into smart meters) prevents power outages and data manipulation, ensuring grid stability and citizen safety. Its low processing time allows for real-time threat response, crucial for maintaining uninterrupted city services. The framework's ability to adapt to dynamic threat patterns ensures long-term resilience against evolving cyber risks.
Challenge: Traditional cybersecurity systems struggle with the volume, velocity, and variety of IoT data, often failing to detect sophisticated cyberthreats in real-time while maintaining user privacy. The decentralized nature of IoT deployments further complicates centralized security management.
Solution: AAIFLF-PPCD addresses these challenges by integrating HHO for efficient feature selection, SSAE for accurate cyberthreat classification, and WOA for optimal hyperparameter tuning within a Federated Learning framework. This approach ensures data privacy by keeping raw data local to devices, while collaboratively learning threat patterns. Its superior accuracy (99.47%) and rapid processing (4.51s) enable proactive and effective threat mitigation in dynamic IoT environments.
Outcome: Enhanced security posture for smart city IoT infrastructure, significant reduction in successful cyberattacks, improved data privacy compliance, and real-time anomaly detection capabilities. This leads to greater public trust in smart city initiatives and more resilient urban services, contributing to overall urban sustainability and safety.
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Your AI Implementation Roadmap
A typical phased approach to integrate advanced AI and Federated Learning into your enterprise.
Phase 1: Discovery & Strategy
Comprehensive assessment of existing infrastructure, data ecosystem, and business objectives. Define clear AI use cases and strategic roadmap aligned with enterprise goals. Evaluate privacy requirements and Federated Learning feasibility.
Phase 2: Pilot & Development
Develop a proof-of-concept for the AAIFLF-PPCD model. Implement initial feature selection (HHO), model training (SSAE), and hyperparameter tuning (WOA) on a segmented dataset. Validate privacy-preserving mechanisms.
Phase 3: Integration & Scaling
Seamless integration of the AAIFLF-PPCD framework into production environments. Scale the solution across various IoT devices and smart city segments. Establish monitoring and feedback loops for continuous improvement.
Phase 4: Optimization & Governance
Ongoing model refinement and performance optimization. Implement robust governance policies for data privacy, model updates, and security protocols. Ensure long-term sustainability and adaptability to evolving cyberthreats.
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