Purpose. The .NET Framework technology stack is widely used in agricultural research for mathematical modeling of agroecosystems. One of the most relevant areas of research is ensemble computations. Conducting such research requires a lightweight remote procedure call (RPC) mechanism that enables efficient network communication between applications. Methods. .NET Framework technology stack with previously developed RW.Ring platform libraries; object-oriented programming; techniques for working with TCP and HTTP network protocols; methods for building service-oriented architecture. Results. The developed module supports various methods of network interaction: remote procedure calls (RPC) and binary commands, as well as their integration into the client-server architecture. The module's advantages over WCF technology are highlighted: high performance, code compactness, minimization of computational resources, and flexibility in adapting to various tasks. The module supports TCP and HTTP protocols, enabling developers to tailor it for processing large data volumes, including serialization and user authentication. Examples of the module's application in agroecosystem research are provided, where it enables analysis of climate change impacts on crop yields while reducing the costs of field experiments. The module simplifies integration into distributed systems, optimizes resource usage, and supports real-time field research. The scientific novelty lies in developing a lightweight alternative to traditional network interaction technologies, reducing overhead and enhancing performance. A more universal binary command mechanism is proposed to complement the traditional service-oriented architecture. Its practical significance is evident in improving the efficiency of researchers handling large datasets and supporting decision-making in agriculture. The module integrates with remote sensing systems for automated photo analysis, expanding its applications in the agroindustrial sector. The RW.Ring platform significantly contributes to the development of digital technologies for agriculture, offering an innovative approach to organizing distributed computations and network interactions, making it a promising tool for international scientific collaborations.

Relevance. The modern educational space is undergoing a transformation due to global digitalization, the development of information technology and the need to improve the quality of education. The purpose of the article is to develop a modified architecture of the digital educational environment to increase the effectiveness of the intellectual implementation of the educational process. The implementation of adaptive interaction of participants in the educational process is carried out through the components of intellectual support with an assessment of the results of interaction for subsequent decision-making in the learning process using the example of the structure of higher education institutions. Methods. Structural and functional analysis was used to identify the functions of the considered subsystems of the digital environment. To develop a conceptual representation of the architecture of the educational environment, modeling was applied taking into account the logical connections between the components of the environment. Result. The article analyzes the basic components of the architecture of digital environments of educational organizational structures, and develops a modified architecture of the digital educational environment for intelligent support of the educational process. The scientific novelty lies in the development of a modified architecture of the digital environment with the justification of information and communication components for the implementation of intellectual interaction of participants in the educational process. The practical significance is manifested in increasing the effectiveness of adaptive interaction of participants in the educational process through intellectual support based on a modified architecture of the digital educational environment with information and communication components.

Purpose. Developing a development concept for mineral fertilizer production enterprises aimed at improving integrated automated information and analytical support systems for decision-making processes across all stages of production. The objective of the work is to present the developed development concept for JSC Apatit, aimed at improving information and analytical support for mineral fertilizer production to increase the efficiency of this process. Novelty. The novelty of the developed concept lies in ensuring the innovative nature of production management by creating the possibility of complete information and analytical support for the processes of development and decision-making at all stages of production. Results. A development concept for JSC Apatit has been developed, proposing improvements to information and analytical support for production, which will ensure its innovative nature through the use of intelligent digital technologies. The initial results of the concept's implementation are presented, including the developed ZIIOT Industrial Internet of Things platform, ZIAK MES basic digitalization components, and the EXTERNUM distributed control system. To achieve the development concept's goals, an end-to-end procedure for information and analytical support for production was developed based on the Zyfra IIOT Platform digital platform, the Zyfra Industrial Automation Kit, and intelligent technologies. Practical relevance. The implementation of the concept will improve the efficiency and validity of decisions on managing the production of mineral fertilizers, reduce costs and losses, improve interaction between all production units, and increase the efficiency of personnel.