This paper examines the compression of the artillery kill chain in a UAS-saturated battlefield, using the Nagorno-Karabakh conflict (2020) as an empirical case. Based on OSINT analysis, the kill chain is decomposed into measurable phases and their temporal intervals estimated. Results indicate a total duration of 60–120 seconds, making time a dominant tactical constraint. The findings highlight implications for artillery tactics, simulation models, and officer education within Joint Fire Support and Multi-Domain Operations. The study provides a transparent framework linking empirical observations with operational practice.
This paper analyzes one-way attack UAV saturation and air defense adaptation using open-source attack data recorded by Shahed-136/131 UAVs in Ukraine. Descriptive statistics, correlation, regression, and non-parametric tests indicate rapid growth in UAV volume, partial saturation effects, and a clear distinction between kinetic destruction and broader neutralization. The study contributes a measurable counter-UAS assessment model that links attack volume, defensive performance, and small-state air defense planning.
This paper examines how uncrewed platforms and contemporary sensor suites may extend engineer reconnaissance of water obstacles in support of river-crossing planning. The paper combines a structured review of Czech doctrinal practice and candidate sensor-platform combinations with a field experiment carried out on a selected section of the River Svratka, using unmanned aerial vehicle (UAV)-borne Light Detection and Ranging (LiDAR), UAV-borne ground-penetrating radar (GPR) and Global Navigation Satellite System (GNSS) control points. The combined evaluation indicates that LiDAR is highly effective for bank geometry and approach assessment, whereas GPR can complement it by indicating the longitudinal bed profile and sediment interfaces, albeit with greater interpretative uncertainty.