Architecture of multifunctional application software microservices

DOI: 10.31673/2409-7292.2024.030009

Abstract

One of the key challenges in modern software architecture is ensuring the efficient management of resources and computational power in distributed systems. As the demand for real-time information services grows, traditional architectures face limitations in handling dynamic workloads and maintaining low latency. The structure of the micro-service architecture of a multifunctional software application is presented. The proposed structure advances existing architectures by introducing a Broker block, which creates conditions for implementing models and methods of dynamic foggy calculations. These calculations aim to improve the quality of information services by migrating necessary software microservices to regions with high demand. This migration enhances efficiency in resource utilization and service delivery. The example provided demonstrates that distributed dynamic foggy calculations can significantly boost the computing power of information networks by offloading some of the network traffic, reducing congestion. This also minimizes the round-trip delay, optimizing overall performance. Additionally, by dynamically distributing computing tasks based on current demand, the system improves both scalability and responsiveness. The implementation of such foggy computational techniques offers a solution to the growing need for real-time data processing in modern applications, particularly in environments with fluctuating network traffic and computational demands. This approach is especially relevant for services requiring low latency and high availability, making it a powerful tool in the development of future network architectures.

Keywords: micro-service architecture, software, dynamic foggy.

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