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Exploring a Model Network for Orchestation IoT Services Based on Kubernetes

This paper focuses on the implementation of the concept of microservices, which can be used to design and implement distributed edge services for IoT applications. Basically, IoT is a platform where integrat-ed services are connected to a common network, so all devices are able to collect and exchange data with each other. Typically, monolithic user mobility services are developed 
for the core components of the ETSI MEC Unified Systems Reference Architecture. The ETSI MEC views microservices as a tool for separating monolithic applications into a set of loosely coupled distributed components, i.e. which provides an independent unit that implements a function. This architecture is expected to facilitate dynamic adaptation at runtime. However, increased modularity can also increase the load on orchestration and system management. In MEC, user equipment is connected through gate-ways to microservices running at the edge node. In the work, a distributed service is implemented using Docker containers and is designed to actually adapt to surrounding low-capacity servers. The results demonstrate that low latency for edge applications can be achieved with this kind of implementation. The integration of software technology with a standardized boundary system provides a solid foundation for subsequent development. This article discusses the use of edge computing architecture and Kubernetes for orchestration and management of network applications.