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Author | Year | Subject | Method | Application | Results |
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Giang et al. [34] | 2020 | Large scale, dynamic fog computing in WSN | Distributed node-RED | Base study | Reduce costs |
Hossan & Nower [26] | 2020 | Fog-based WSN dynamic | Neighboring impact factor | Efficient dynamic traffic light control algorithm for multiple intersections | Reduces wait time, lowers fuel consumption, and boosts system throughput |
Sharma & Saini [30] | 2020 | Task allocation and secure deduplication using fog computing | Hybrid Multiplier. Multi-Objective based Whale Optimization algorithm | Base study | Enhancement in average latency, user satisfaction, network lifetime, energy consumption, and security strength |
Tsipis et al. [27] | 2020 | Latency-Adjustable Cloud/Fog Computing Architecture for Time-Sensitive monitoring | Cloud/fog computing paradigm | Environmental Monitoring agricultural activity | Improve efficiency, flexibility, and scalability of the approach in terms of latency |
Zeng et al. [35] | 2020 | Energy powered Cyber-Physical Fog Systems | Mixed-integer linear programming | Cyber-Physical application | The high energy efficiency of our algorithm |
Rani & Saini [28] | 2020 | Secure data collection of fog computing in WSN | The combination of fog and cloud can handle extensive data collection. | Health monitoring | Reduce the cost of data transportation and storage |
Bellavista et al. [36] | 2020 | SDN-based multi-layer routing in fog environments | Multi-Layer Advanced Networking Environment | Smart city | Determines the most suitable path and configures the proper MLR forwarding mechanism |
Jain & Goel [37] | 2020 | Energy efficient fuzzy routing protocol | Fuzzy C-means | Wireless sensor network | High performance, low energy consumption |
Tortonesi et al. [38] | 2019 | Innovative information-centric service model for fog computing | Fog-as-a-service | Smart city environments | An effective platform for running fog services on heterogeneous devices |
Sun et al. [39] | 2019 | Presenting an energy-efficient clustering method for fog computing in WSNs | Cross-layer-sensing clustering method and particles swarm optimization | Base study | Optimize the data aggregation efficiency and improve the network performance |
Maatoug et al. [40] | 2019 | Fog computing framework for energy management | Fog computing framework | Smart building | Decreases latency and improves energy-saving and the efficiency of services among things with different capabilities |
Sahith et al. [41] | 2019 | Face identification in fog computing framework for WSN | Radio communication module XBee, ZigBee protocol | Face identification | Data collection and the functionality of the system are good. |
Mihai et al. [42] | 2018 | Intelligent Data Processing in fog system and WSN | Fog and mist computing approaches | Base study | Improve the information to noise ratio |
Bhargava et al. [43] | 2017 | Fog-enabled WSN system for animal behavior analysis | Edge mining concept | Animal behavior analysis | Accuracy and suitability of the methods |
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