Cognitive Load Balancing in AI-Enhanced Microservices for Edge–Cloud Continuum Systems

Authors

  • Ian McEwan du Maurier, Independent Researcher, Germany Author

Keywords:

cognitive computing, load balancing, edge computing, AI microservices, cloud orchestration, , distributed systems, edge–cloud continuum, container migration, real-time computing

Abstract

 

Purpose: This paper investigates the integration of cognitive load balancing techniques in AI-enhanced microservices within edge–cloud continuum systems, aiming to improve resource utilization, system responsiveness, and resilience.

Design/methodology/approach: We propose a framework that combines cognitive AI decision-making with dynamic load balancing to handle fluctuating workloads in distributed edge-cloud environments. The study evaluates key architectural patterns and orchestration mechanisms across the edge-cloud continuum.

Findings: Cognitive load balancing improves system adaptability by reducing latency, avoiding resource bottlenecks, and enhancing energy efficiency. AI-driven orchestration enables microservices to migrate and scale based on workload predictions and edge-cloud resource states.

Practical implications: The results can guide the design of resilient, self-adaptive microservice systems for smart cities, industrial IoT, and intelligent transportation where latency and scalability are critical.

Originality/value: This work uniquely integrates cognitive AI with microservice orchestration in a multi-layer edge–cloud architecture and presents validated optimization strategies for dynamic load distribution.

References

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Published

2023-04-04

How to Cite

Cognitive Load Balancing in AI-Enhanced Microservices for Edge–Cloud Continuum Systems. (2023). INTERNATIONAL JOURNAL OF ENGINEERING TRENDS AND TECHNOLOGY RESEARCH (IJETTR), 4(1), 8-14. https://ijettr.com/index.php/IJETTR/article/view/IJETTR_04_01_002