Joint Optimization of Sequential Task Offloading and Service Deployment in End-Edge-Cloud System for Energy Efficiency

IF 3 3区 计算机科学 Q2 COMPUTER SCIENCE, HARDWARE & ARCHITECTURE IEEE Transactions on Sustainable Computing Pub Date : 2023-07-03 DOI:10.1109/TSUSC.2023.3291365
Meiyan Teng;Xin Li;Kun Zhu
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Abstract

Intelligent terminal devices (TDs) usually request delay-sensitive and resource-demanding jobs, which are consisted of many sequential tasks. Mobile edge computing (MEC) offloads tasks to edge networks closer to TDs, making up for the lack of long delay response in the cloud, but it has a limited energy supply. Thanks to low-energy TDs also having processing capacity, it is a critical and challenging issue to offload sequential tasks for sustainable computing and reducing carbon emission in a terminal-edge-cloud (TEC) architecture. Existing research on offloading is limited to MEC or cloud-edge coordination environment, and ignores the impact of sequential task ( S-Task ) constraint and service constraint. To bridge the gap, our paper first formulates the jointly optimal S-Task offloading and service deployment ( JOTOSD ) problems objected to maximize the energy utility related to response delay, which is NP-hard and is divided into deployment and offloading sub-problems. Then, we propose a comprehensive offloading and deployment ( COD ) method, including the Break-Point ( BP ) algorithm and the convex programming-based edge offloading ( CVEO ) algorithm under a service deployment strategy provided by an iterative service deployment ( ISD ) algorithm. Simulate results prove that the proposed method can improve by about 20% of energy utility by compared with other heuristic algorithms.
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端-边-云系统中顺序任务卸载和服务部署的联合优化以提高能效
智能终端设备(TD)通常会请求延迟敏感且资源需求量大的任务,这些任务由许多连续任务组成。移动边缘计算(MEC)将任务卸载到离 TD 更近的边缘网络,弥补了云中长延迟响应的不足,但它的能量供应有限。由于低能耗的 TD 也具有处理能力,因此在终端-边缘-云(TEC)架构中卸载连续任务以实现可持续计算和减少碳排放是一个关键而又具有挑战性的问题。现有的卸载研究仅限于 MEC 或云边协调环境,忽略了顺序任务(S-Task)约束和服务约束的影响。为了弥补这一差距,本文首先提出了联合最优 S 任务卸载和服务部署(JOTOSD)问题,目的是最大化与响应延迟相关的能源效用,该问题具有 NP 难度,并分为部署和卸载两个子问题。然后,我们提出了一种综合卸载和部署(COD)方法,包括迭代服务部署(ISD)算法提供的服务部署策略下的断点(BP)算法和基于凸编程的边缘卸载(CVEO)算法。模拟结果证明,与其他启发式算法相比,所提出的方法能提高约 20% 的能源效用。
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来源期刊
IEEE Transactions on Sustainable Computing
IEEE Transactions on Sustainable Computing Mathematics-Control and Optimization
CiteScore
7.70
自引率
2.60%
发文量
54
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