The paper presents the Virtual Reality (VR) - Augmented Reality (AR) Simulator Kit designed for Call for Fire (CFF) training within the framework of fire support. It describes the system’s modular architecture, the use of mixed reality, voice control, and Artificial Intelligence (AI) based analysis of standardized CFF communication. Pilot validation confirmed the technical functionality of the solution, as well as its ability to objectively assess procedural correctness and monitor reaction time and error rates. Its main contribution lies in linking immersive training with the broader context of fire support command and control. The originality of the paper consists in integrating VR/AR, AI, and analytical evaluation into a single training ecosystem.
This paper develops an integrated analytical framework for assessing the environmental impacts of artillery activity on soil ecosystems. The approach combines military-technical parameters with environmental, spatial, and economic data using GIS and geostatistical methods. A key contribution is the Environmental Burden Index (EBI), which evaluates environmental load across five domains: chemical contamination, physical degradation, spatial distribution of impacts, ecological sensitivity and recovery complexity. The results demonstrate that environmental degradation arises from the interaction of multiple factors, particularly fire intensity, munition type, terrain morphology, and soil characteristics, rather than from isolated contamination indicators. The proposed framework enables objective comparison of affected sites, identification of remediation priorities, and supports decision-making processes in post-conflict recovery and sustainable land management.