Model of resource and quorum management for a blockchain-oriented distributed information system in a multi-cloud environment

Authors

  • Iryna Chepurna Kharkiv National University of Radio Electronics

DOI:

https://doi.org/10.30837/2522-9818.2026.2.185

Keywords:

mathematical model; resource management; quorum; blockchain; information system; cloud

Abstract

The subject of this study is a mathematical model for managing computing resources and ensuring quorum in a blockchain-oriented distributed information system within a multi-cloud environment. The goal of the work is to develop a set-theoretic model that formalizes the multi-cloud deployment of components of a blockchain-oriented distributed information system, taking into account its multi-level architecture, the heterogeneity of available resources, the aggregated resource state of nodes, their availability, and the conditions for ensuring quorum during operation under variable load. Methods. To achieve the set goal, methods of system analysis were used to formalize the system structure and the connections between its components; methods of mathematical modeling were used to construct a formal description of the multi-cloud environment, the resource state of nodes, control actions, and quorum constraints; statistical analysis methods for processing, aggregating, and normalizing telemetry data; decision-making theory methods for establishing conditions for acceptable resource reallocation; and simulation modeling methods for verifying the performance of the developed model under conditions of variable load, resource scarcity, and variable node availability. Results. For the first time, a formalized set-theoretic model has been developed for managing computing resources and ensuring quorum in a blockchain-oriented distributed information system within a multi-cloud environment. Unlike existing approaches, combines, within a single unified representation, the multi-cloud environment as a set of cloud platforms from different vendors, the multi-level system architecture, the aggregated resource state of nodes, the conditions for permissible resource reallocation, and the specified requirements for ensuring quorum. Sets of cloud environments, architectural levels, and system nodes are presented; vectors of available and allocated resources, an aggregated system state vector, a resource deviation function, a quorum assurance function, and a set of permissible control actions are introduced. Simulation studies confirmed the model’s operability under nominal operation, resource scarcity, and node availability degradation. This allowed for the formulation of the decision-making process regarding resource reallocation and system operability maintenance within a single mathematical framework. Conclusions. The developed model provides a formalized description of the processes of managing computational resources and ensuring quorum in a blockchain-oriented distributed information system in a multi-cloud environment and can be used as a basis for further development of methods for optimizing control decisions and experimental research into the system’s operational efficiency under dynamic conditions.

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Author Biography

Iryna Chepurna, Kharkiv National University of Radio Electronics

Assistant of the Electronic Computers Department

References

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Published

2026-06-27

How to Cite

Chepurna, I. (2026) “Model of resource and quorum management for a blockchain-oriented distributed information system in a multi-cloud environment”, INNOVATIVE TECHNOLOGIES AND SCIENTIFIC SOLUTIONS FOR INDUSTRIES, (2(36), pp. 185–199. doi: 10.30837/2522-9818.2026.2.185.