Ranking and Validation of Variables Determining Fog Computing Performance in IoT Applications

Cloud computing capabilities are extended to the network's edge with fog computing, which offers low-latency processing and storage, making it essential for Internet of Things (IoT) applications. Numerous network and computational factors, however, can significantly influence a substantial impact on fog computing systems' performance. The main objective of this study is to rank and validate the most important elements that affect fog computing performance, particularly when it comes to Internet of Things applications. We investigate five key variables: Packet Loss Rate (PLR), Queue Time, Latency, Channel Utilization, and Throughput, in terms of their influence on the overall performance of fog nodes and IoT systems. Through a comprehensive evaluation using both theoretical models and experimental data, we establish a ranking for these variables based on their direct impact on fog computing performance. The analysis shows that Packet Loss Rate emerges as the most critical factor, as higher packet loss can severely degrade the reliability of communication between fog nodes and IoT devices. This is followed by Queue Time, which represents the delay incurred in processing incoming data requests; longer queue times contribute to increased system latencies and reduced throughput. Latency itself, although related to the aforementioned factors, ranks third as it directly affects the responsiveness of real-time applications. Channel Utilization, a measure of how effectively the communication channel is used, ranks fourth, influencing the overall network capacity and bandwidth efficiency. Lastly, Throughput is ranked fifth, as it is closely tied to the network's ability to transmit data efficiently but has a secondary effect compared to other variables in terms of performance degradation. These rankings were validated through consultation with industry experts, confirming the crucial roles that PLR and Queue Time play in optimizing fog computing performance. These findings provide valuable insights for researchers and practitioners seeking to improve the design and implementation of fog computing systems, highlighting the need for targeted optimizations in the most impactful variables to achieve enhanced performance in IoT environments.

Authors

Publication Details

Journal
International Journal of Science and Research (IJSR)
Published
2025-04-17
DOI
https://doi.org/10.21275/sr25408144751
Primary Topic
Energy and Environmental Systems
Type
article
Field-Weighted Citation Impact
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article

Ranking and Validation of Variables Determining Fog Computing Performance in IoT Applications

Njenga Stephen, Michael George, Kanuku Watson
International Journal of Science and Research (IJSR)
Energy and Environmental Systems
article

Ranking and Validation of Variables Determining Fog Computing Performance in IoT Applications

Njenga Stephen, Michael George, Kanuku Watson
article en

Abstract

Cloud computing capabilities are extended to the network's edge with fog computing, which offers low-latency processing and storage, making it essential for Internet of Things (IoT) applications. Numerous network and computational factors, however, can significantly influence a substantial impact on fog computing systems' performance. The main objective of this study is to rank and validate the most important elements that affect fog computing performance, particularly when it comes to Internet of Things applications. We investigate five key variables: Packet Loss Rate (PLR), Queue Time, Latency, Channel Utilization, and Throughput, in terms of their influence on the overall performance of fog nodes and IoT systems. Through a comprehensive evaluation using both theoretical models and experimental data, we establish a ranking for these variables based on their direct impact on fog computing performance. The analysis shows that Packet Loss Rate emerges as the most critical factor, as higher packet loss can severely degrade the reliability of communication between fog nodes and IoT devices. This is followed by Queue Time, which represents the delay incurred in processing incoming data requests; longer queue times contribute to increased system latencies and reduced throughput. Latency itself, although related to the aforementioned factors, ranks third as it directly affects the responsiveness of real-time applications. Channel Utilization, a measure of how effectively the communication channel is used, ranks fourth, influencing the overall network capacity and bandwidth efficiency. Lastly, Throughput is ranked fifth, as it is closely tied to the network's ability to transmit data efficiently but has a secondary effect compared to other variables in terms of performance degradation. These rankings were validated through consultation with industry experts, confirming the crucial roles that PLR and Queue Time play in optimizing fog computing performance. These findings provide valuable insights for researchers and practitioners seeking to improve the design and implementation of fog computing systems, highlighting the need for targeted optimizations in the most impactful variables to achieve enhanced performance in IoT environments.

International Journal of Science and Research (IJSR)Vol. 14(4)
Openalex Percentile: Top 92%
Energy and Environmental Systems
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