Table 1 Performance comparison of the proposed ensemble DL model with existing methods for IoT cyber-attack detection in smart City environments.
Reference Number | Objective | Method | Dataset | Measures |
---|---|---|---|---|
Chen et al11 | For efficient task scheduling and resource allocation for large-scale EC in smart cities. | Regional partitioning, voronoi diagrams, tetris offloading, adaptive allocation, online learning | Large-scale EC workloads | Task deadline violation rate |
Ai-Quayed et al.12 | To improve secure and efficient routing in cognitive networks for smart cities using RL and BC. | RL, BC, fault detection and validation, adaptive resource management | Simulated cognitive network data | Network efficiency, security metrics |
Sahu et al.13 | To optimize smart parking management using a multi-objective framework integrating DT and hybrid optimization models. | DT, MDP, PSO, PFO | Simulated smart parking data | Search time, energy usage, traffic congestion |
Chen et al14 | To enhance GSW for unified, collaborative edge-side observation and dynamic resource management. | IoT protocol integration, stm, sensorml and sos extension, dynamic task allocation | City sensing base station data | Resource accessibility, real-time processing |
Wang et al.15 | To reduce latency and delay in EC for smart urban vehicle transportation using hybrid optimization. | p-H-WDFOA, 5G multi-access EC, hybrid edge-cloud architecture | Smart urban vehicle network data | Latency, processing time, energy consumption |
Tian et al.16 | To enhance security and anomaly detection in IIoT EC for smart cities using hybrid learning models. | ELM-RNN, DRL-DQN, distributed authorization mechanism, STAPPA, GA | Simulated IIot network data | Detection rate, accuracy |
Xu, Nagothu, and Chen17 | To develop an autonomous and resilient EC architecture integrating AI, SDN, and BC for secure and efficient IoT ecosystems. | AR-EC, SDN, BC, LLM, federated microchain blockchain, autonomous edge resource coordination | ITS data | Network resilience, security, resource optimization |
Sun et al.18 | To optimize resource allocation and task scheduling in hierarchical EC networks for smart cities to ensure quality of service. | AM, priority determination, Q-Learning | Simulated edge network data | Resource utilization, task delay, QoS guarantee |
Wang, Wang, and Du19 | To develop an intuitive system to assist users with severe disabilities in smart home environments. | NeuroSpatialIOT, Eye Tracking, DL, context-aware control display | Eye movement and Spatial data from users | Usability score, task completion time |
Far et al.20 | To explore the integration of BC and DRL to enhance privacy, security, and transmission efficiency in IoT-assisted smart cities. | BC, DRL, IoT system clustering and categorization, taxonomy development | Literature review (2015–2024) | Privacy, security, transmission efficiency |
Khan et al.21 | To develop an energy-efficient DL-based mechanism for optimal parallel computation offloading in mobile EC. | EPCOD, EEDOS, multi-factor analysis | Large simulated offloading data | Latency, energy consumption, accuracy |
Mishra and Chaurasiya22 | To develop a hybrid DL model to secure IoT-based smart city transactions by detecting and preventing cyber-attacks. | LSTM-SVM, Min-Max normalization, weighted average filtering, RSA, BC | Smart city transaction data | Accuracy, specificity, f1 score |
Ficili et al.23 | To explore and analyze innovative integration approaches to enable real-time decision-making and predictive analytics. | IoT Integration, CC, EC, AI | Case studies and applications | Latency, decision accuracy |
Wang et al.24 | To develop an AI-based model for secure and accurate load management in IoT-based smart cities. | MSLL, MMStransformer, load forecasting, security integration | Smart city IoT data | Prediction accuracy, computational efficiency |
Lilhore et al.25 | To develop a hybrid model for dynamic and efficient resource allocation and workload scheduling in IoT edge-cloud ecosystems. | DQN, PPO, GNN, RL | Google cluster data, alibaba cluster trace, microsoft azure traces | Scheduling time, operational cost, energy consumption |
Ahmed and Elena26 | To investigate how integrating AI with EC enhances real-time decision-making, scalability, and network resilience in autonomous networks. | ML, FL, intelligent orchestration | Various real-world IoT and network data | Latency, scalability, resource utilization |
Qasim Jebur Al-Zaidawi and Çevik27 | To optimize DL for real-time IoT anomaly detection with balanced scalability and efficiency using hybrid optimization. | HGWOPSO, HWCOAHHO, MCDM, AHP | Real-world IoT network data | Accuracy, precision, recall, f1-score |
Kumar and Neduncheliyan28 | To develop an ensemble DL model for accurate IoT cyber-attack detection. | CNN, BiGRU, SSOFFN, FC | ToN-IoT dataset | Detection rate, auc, accuracy, precision, recall, f1-score |