Research on Resource Optimization and Scheduling Strategy of E-Commerce Poverty Alleviation Platform Under Multi-Cloud Collaborative Architecture

Aiming at the resource optimization problem of e-commerce poverty alleviation platform under multi-cloud architecture, this paper proposes a dynamic priority resource scheduling algorithm (DPRS). The algorithm constructs a hierarchical task classification model, determines the task priority weight through AHP, and introduces Q-learning to realize dynamic allocation of cross-cloud resources. The experiment is based on the CloudSim simulation platform, using a real data set of e-commerce poverty alleviation in a certain province (100,000 tasks). In the cross-cloud bandwidth 5Gbps scenario, the average task completion time of DPRS is 427ms, which is 37.5% shorter than that of genetic algorithm (GA); the SLA violation rate of high-priority tasks is only 0.3%, which is better than FCFS's 7.2%. Cost optimization experiments show that DPRS reduces the cost of cross-cloud migration by 28.3% and improves resource utilization by 26%. In the scalability test, the system supports 50,000 tasks per minute, and the throughput is 41% higher than that of traditional solutions. The results show that DPRS effectively balances the real-time, cost and fairness requirements of the e-commerce poverty alleviation platform, and provides a new solution for the resource management of the smart agriculture system.

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Published
2025-03-14
DOI
https://doi.org/10.1145/3736426.3736481
Primary Topic
E-commerce and Technology Innovations
Type
article
Field-Weighted Citation Impact
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Research on Resource Optimization and Scheduling Strategy of E-Commerce Poverty Alleviation Platform Under Multi-Cloud Collaborative Architecture

Yuanjun Liang, Huanbin Liu, Yi Han, Nuo Chen et al.
E-commerce and Technology Innovations
article

Research on Resource Optimization and Scheduling Strategy of E-Commerce Poverty Alleviation Platform Under Multi-Cloud Collaborative Architecture

Yuanjun Liang, Huanbin Liu, Yi Han, Nuo Chen, Mei Cheng
article en

Abstract

Aiming at the resource optimization problem of e-commerce poverty alleviation platform under multi-cloud architecture, this paper proposes a dynamic priority resource scheduling algorithm (DPRS). The algorithm constructs a hierarchical task classification model, determines the task priority weight through AHP, and introduces Q-learning to realize dynamic allocation of cross-cloud resources. The experiment is based on the CloudSim simulation platform, using a real data set of e-commerce poverty alleviation in a certain province (100,000 tasks). In the cross-cloud bandwidth 5Gbps scenario, the average task completion time of DPRS is 427ms, which is 37.5% shorter than that of genetic algorithm (GA); the SLA violation rate of high-priority tasks is only 0.3%, which is better than FCFS's 7.2%. Cost optimization experiments show that DPRS reduces the cost of cross-cloud migration by 28.3% and improves resource utilization by 26%. In the scalability test, the system supports 50,000 tasks per minute, and the throughput is 41% higher than that of traditional solutions. The results show that DPRS effectively balances the real-time, cost and fairness requirements of the e-commerce poverty alleviation platform, and provides a new solution for the resource management of the smart agriculture system.

South China University of Technology (CN)
No poverty
Openalex Percentile: Top 70%
E-commerce and Technology Innovations
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