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Delay Optimal Schemes for Internet of Things Applications in Heterogeneous Edge Cloud Computing Networks
Abdullah Lakhan1,2, Mazin Abed Mohammed3, Karrar Hameed Abdulkareem4,5
1Department of Cybersecurity and Computer Science, Dawood University of Engineering and Technology, Karachi City 74800, Sindh, Pakistan.
This study introduces a Joint Task Offloading and Scheduling (JTOS) framework to minimize hybrid delay for Internet of Things (IoT) applications. JTOS significantly reduces processing and communication delays in dynamic edge computing environments.
Area of Science:
- Computer Science
- Network Engineering
- Artificial Intelligence
Background:
- Internet of Things (IoT) applications in healthcare, intelligent vehicles, and smart homes generate delay-sensitive data requiring rapid execution.
- Existing offloading and scheduling techniques in dynamic edge computing environments often underperform for delay-sensitive IoT applications.
- Software-Defined Networks (SDN) and fog computing offer edge computing paradigms to minimize end-to-end delays for these applications.
Purpose of the Study:
- To develop an optimized framework for joint task offloading and scheduling to address the performance limitations of existing methods in dynamic IoT environments.
- To minimize the hybrid delay of delay-sensitive IoT applications by formulating the problem as a combinatorial integer linear programming (CILP) model.
- To introduce a novel Joint Task Offloading and Scheduling (JTOS) framework encompassing task offloading, sequencing, scheduling, searching, and failure management.
Main Methods:
- Formulation of joint task offloading and scheduling problems as combinatorial integer linear programming (CILP).
- Development and implementation of the Joint Task Offloading and Scheduling (JTOS) framework.
- Performance evaluation through comparative analysis against existing baseline methods in dynamic environments.
Main Results:
- The proposed JTOS framework demonstrates superior performance in minimizing hybrid delay for all applications compared to existing baseline methods.
- JTOS achieves a 39% reduction in processing delay for IoT applications.
- JTOS achieves a 35% reduction in communication delay for IoT applications.
Conclusions:
- The JTOS framework effectively addresses the challenges of offloading and scheduling for delay-sensitive IoT applications in dynamic edge computing settings.
- JTOS offers significant improvements in reducing both processing and communication delays, enhancing overall application performance.
- The CILP formulation provides a robust approach to optimizing joint task offloading and scheduling decisions for IoT applications.
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