Abstract:SUMMARY
Load balancing (LB) is nothing but the systematic distribution of load over different servers. The fog server is handling the maximum data of the cloud server to enhance the advancement of users' requests. The growth in data requests is escalating, and fog computing has intensified the accessibility of the data. Fog computing achieves many challenges according to the demands of the users, but even so, some challenges require more progress. The problem faced by fog computing is LB due to an increase in … Show more
“…Furthermore, the FC network might address the distance between edge devices and the cloud by placing servers near the edge to significantly decrease energy consumption and latency. In this situation, task offloading decisions between the machines at the border and FNs are influenced by the available resources, energy usage on offloading, and network load balancing 10 . Fog computing encounters several difficulties with increased IoT devices and service requirements.…”
Section: Introductionmentioning
confidence: 99%
“…In this situation, task offloading decisions between the machines at the border and FNs are influenced by the available resources, energy usage on offloading, and network load balancing. 10 Fog computing encounters several difficulties with increased IoT devices and service requirements. The other issues arise when several IoT devices request a service, which poses numerous challenges, such as increased latency, energy usage, and so forth.…”
SummaryThe Internet of Things (IoT) and fog computing (FC) can be integrated to manage massive data processing and complex networks. It can improve communication performance and provide robust computation for resource‐constrained IoT devices by deploying more fog nodes (FNs) at the edge/IoT networks. In this article, the optimal energy‐efficient fog resource allocation (oEeFRA) algorithm is proposed with the help of the minimal channel cost resource allocation (MiCCRA) method to ensure the load balancing and task offloading of the IoT‐FoG network under various constraints. Resource blocks (RBs) should be maintained higher than FNs in this proposed model to enhance the task‐offloading processes. The MiCCRA algorithm is proposed to provide a minimum of one FN and RB for each IoT device used in the IoT‐FoG network and also to ensure that weather each FN should be allotted with one or more RBs and IoT devices for efficient task offloading and load balancing activities. The energy efficiency (EE) of the proposed oEeFRA algorithm is computed through the MiCCRA algorithm by varying RB, FN, and IoT devices. The performance analysis shows that the proposed algorithm achieved the maximum EE of 6.12 × 109 bit/J, 3.019 × 1010 bit/J, and 5.69 × 1010 bit/J for varying RBs, FNs, and IoTs.
“…Furthermore, the FC network might address the distance between edge devices and the cloud by placing servers near the edge to significantly decrease energy consumption and latency. In this situation, task offloading decisions between the machines at the border and FNs are influenced by the available resources, energy usage on offloading, and network load balancing 10 . Fog computing encounters several difficulties with increased IoT devices and service requirements.…”
Section: Introductionmentioning
confidence: 99%
“…In this situation, task offloading decisions between the machines at the border and FNs are influenced by the available resources, energy usage on offloading, and network load balancing. 10 Fog computing encounters several difficulties with increased IoT devices and service requirements. The other issues arise when several IoT devices request a service, which poses numerous challenges, such as increased latency, energy usage, and so forth.…”
SummaryThe Internet of Things (IoT) and fog computing (FC) can be integrated to manage massive data processing and complex networks. It can improve communication performance and provide robust computation for resource‐constrained IoT devices by deploying more fog nodes (FNs) at the edge/IoT networks. In this article, the optimal energy‐efficient fog resource allocation (oEeFRA) algorithm is proposed with the help of the minimal channel cost resource allocation (MiCCRA) method to ensure the load balancing and task offloading of the IoT‐FoG network under various constraints. Resource blocks (RBs) should be maintained higher than FNs in this proposed model to enhance the task‐offloading processes. The MiCCRA algorithm is proposed to provide a minimum of one FN and RB for each IoT device used in the IoT‐FoG network and also to ensure that weather each FN should be allotted with one or more RBs and IoT devices for efficient task offloading and load balancing activities. The energy efficiency (EE) of the proposed oEeFRA algorithm is computed through the MiCCRA algorithm by varying RB, FN, and IoT devices. The performance analysis shows that the proposed algorithm achieved the maximum EE of 6.12 × 109 bit/J, 3.019 × 1010 bit/J, and 5.69 × 1010 bit/J for varying RBs, FNs, and IoTs.
“…Several methods based on LB are discussed in this survey [20], which overcomes the problem of overloaded data on the network. Latency, bandwidth, deadlines, cost, security, execution time, and execution time are some of the aspects that authors have focused on in LB.…”
Section: Related Workmentioning
confidence: 99%
“…𝑓𝑑 𝑗 𝑤 = 𝑓𝑑 𝑗 𝑟 * 𝑤 𝑞 + 1 𝑃𝑇 𝑖𝑗 𝑡 * 𝑤 𝑒 (20) where𝑓𝑑 𝑗 𝑟 is the rank of fdj, wqand we are the weight of fog device rank and the weight of task processing time respectively, such that wq+ we = 1.…”
Section: Phase 3: Determining Fog Device Weightmentioning
Recently, to deliver services directly to the network edge, fog computing, an emerging and developing technology, acts as a layer between the cloud and the IoT worlds. The cloud or fog computing nodes could be selected by IoTs applications to meet their resource needs. Due to the scarce resources of fog devices that are available, as well as the need to meet user demands for low latency and quick reaction times, resource allocation in the fog-cloud environment becomes a difficult problem. In this problem, the load balancing between several fog devices is the most important element in achieving resource efficiency and preventing overload on fog devices. In this paper, a new adaptive resource allocation technique for load balancing in a fog-cloud environment is proposed. The proposed technique ranks each fog device using hybrid multi-criteria decision- making approaches Fuzzy Analytic Hierarchy Process (FAHP) and Fuzzy Technique for Order Performance by Similarity to Ideal Solution (FTOPSIS), then selects the most effective fog device based on the resulting ranking set. The simulation results show that the proposed technique outperforms existing techniques in terms of load balancing, response time, resource utilization, and energy consumption. The proposed technique decreases the number of fog nodes by 11%, load balancing variance by 69% and increases resource utilization to 90% which is comparatively higher than the comparable methods.
“…Liu et al [12] demonstrated a fog-based privacy-preservation scheme for SG data aggregation that enables the service provider for multiple function queries on encryption of meter data. The authors of [20][21][22][23][24] have worked on IoT applications and events where Markov model has been used. However, none of them is suitable for a smart grid environment.…”
The tremendous growth of about 8 billion devices connected to each other in various domains of Internet of Things (IoT)-based applications have attracted researchers from both industry and academia. IoT is a network of several devices connected with each other to provide sensing capabilities, particularly in smart grid (SG) environment. Various challenges such as the efficient handling of massive IoT data can be addressed with advances in fog computing. The secure data aggregation challenge is one such issue in IoT-based smart grid systems, which include millions of smart meters. Typical SG-based data aggregation approaches have high computation and communication costs, however, many efforts have been made to overcome these limitations while leveraging fog computing but no satisfactory results have been obtained. Moreover, existing solutions also suffer from high storage requirements. The traditional data aggregation schemes such as GCEDA (Grouping of Clusters for Efficient Data Aggregation) and SPPDA (Secure Privacy-Preserving Data Aggregation) also suffer from a few shortcomings. SPPDA follows a mixed aggregation architecture that includes trees and clusters which can lead to some performance complexities and is not energy-efficient, whereas GCEDA does not support heterogeneity. To overcome these problems, this research provides a fog-assisted strategy for secure and efficient data aggregation in smart grid. The concept of smart grid is implemented in fog environment, which was not the case in previous schemes. We used communication between smart meters (SMs) and fog nodes (FNs) to transmit confidential data in compressed form towards FN. The FN further aggregates the received data which can then be updated in cloud repositories later. We presented two algorithms—data aggregation and data extraction at FN and cloud, respectively, to achieve secure communication. The performance of the proposed strategy has been evaluated against existing data aggregation techniques GCEDA and SPPDA for various performance parameters such as storage, communication cost and transmission cost. The proposed scheme overcomes the limitation of heterogeneity and mixed aggregation which was faced in GCEDA and SPPDA and the results revealed outstanding performance in comparison with both, so the proposed solution can be used in a smart grid environment for efficient and secure data transmission.
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