Enhancing performance of machine learning tasks on edge-cloud infrastructures: A cross-domain Internet of Things based framework

The Internet of Things (IoT) and Edge-Cloud Computing have been trending technologies over the past few years. In this work, we introduce the Enhanced Optimized-Greedy Nominator Heuristic (EO-GNH), a framework designed to optimize machine learning (ML) and artificial intelligence (AI) application placement in edge environments, aiming to improve Quality of Service (QoS). Developed specifically for sectors such as smart agriculture, industry, and healthcare, EO-GNH integrates asynchronous MapReduce and parallel meta-heuristics to effectively manage AI applications, focusing on execution performance, resource utilization, and infrastructure resilience. The framework carefully addresses the distribution challenges of AI applications, especially Service Function Chains (SFCs), in edge-cloud infrastructures. It contains Data Flow Management, which covers aspects of data storage and data privacy, and also considers factors like regional adaptations, mobile access, and AI model refinement. EO-GNH ensures high availability for forecasting, prediction, and training AI models, operating efficiently within a geo-distributed infrastructure. The proposed strategies within EO-GNH emphasize concurrent multi-node execution, enhancing AI application placement by improving execution time, dependability, and cost-effectiveness. The efficiency of EO-GNH is demonstrated through its impact on QoS in real-time resource management across three application domains, highlighting its adaptability and potential in diverse cross-domain IoT-based environments. • EO-GNH optimizes AI application placement in edge computing environments for improved QoS performance • EO-GNH leverages Parsl for parallel meta-heuristic execution and optimized workload deployment • EO-GNH is faster than distributed NSGA-II in finding solutions to multi-objective optimization problems • EO-GNH delivers edge AI capabilities from federated learning to real-time inference • EO-GNH transforms IoT operations across healthcare, industry, and agriculture applications

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Publication Details

Journal
Future Generation Computer Systems
Published
2024-12-31
DOI
https://doi.org/10.1016/j.future.2024.107696
Citations
8
Primary Topic
IoT and Edge/Fog Computing
Type
article
Field-Weighted Citation Impact
2.79

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article

Enhancing performance of machine learning tasks on edge-cloud infrastructures: A cross-domain Internet of Things based framework

Omer Rana, Nitin Auluck, Osama Almurshed, Souham Meshoul et al.
8 citations
Future Generation Computer Systems
IoT and Edge/Fog Computing
2.79
article

Enhancing performance of machine learning tasks on edge-cloud infrastructures: A cross-domain Internet of Things based framework

Omer Rana, Nitin Auluck, Osama Almurshed, Souham Meshoul, Ioan Petri, Ashish Kumar Kaushal, Asmail Muftah, Osama Almoghamis
article en
8 citations

Abstract

The Internet of Things (IoT) and Edge-Cloud Computing have been trending technologies over the past few years. In this work, we introduce the Enhanced Optimized-Greedy Nominator Heuristic (EO-GNH), a framework designed to optimize machine learning (ML) and artificial intelligence (AI) application placement in edge environments, aiming to improve Quality of Service (QoS). Developed specifically for sectors such as smart agriculture, industry, and healthcare, EO-GNH integrates asynchronous MapReduce and parallel meta-heuristics to effectively manage AI applications, focusing on execution performance, resource utilization, and infrastructure resilience. The framework carefully addresses the distribution challenges of AI applications, especially Service Function Chains (SFCs), in edge-cloud infrastructures. It contains Data Flow Management, which covers aspects of data storage and data privacy, and also considers factors like regional adaptations, mobile access, and AI model refinement. EO-GNH ensures high availability for forecasting, prediction, and training AI models, operating efficiently within a geo-distributed infrastructure. The proposed strategies within EO-GNH emphasize concurrent multi-node execution, enhancing AI application placement by improving execution time, dependability, and cost-effectiveness. The efficiency of EO-GNH is demonstrated through its impact on QoS in real-time resource management across three application domains, highlighting its adaptability and potential in diverse cross-domain IoT-based environments. • EO-GNH optimizes AI application placement in edge computing environments for improved QoS performance • EO-GNH leverages Parsl for parallel meta-heuristic execution and optimized workload deployment • EO-GNH is faster than distributed NSGA-II in finding solutions to multi-objective optimization problems • EO-GNH delivers edge AI capabilities from federated learning to real-time inference • EO-GNH transforms IoT operations across healthcare, industry, and agriculture applications

Future Generation Computer SystemsVol. 166
Princess Nourah bint Abdulrahman University (SA), Indian Institute of Technology Ropar (IN), Prince Sattam Bin Abdulaziz University (SA), King Saud University (SA), Al Zawiya University (LY), Cardiff University (GB)
Engineering and Physical Sciences Research Council
Industry, innovation and infrastructure
Openalex Percentile: Top 9%
IoT and Edge/Fog Computing
2.79
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