Personal body armor has evolved to address threats typical of contemporary warfare. Artillery effects, particularly fragmentation, have become a significant threat to military personnel, increasing the demand for effective protective solutions. This paper proposes a combined analytical–experimental framework for evaluating the effectiveness of personal body armor against artillery fragmentation. Fragmentation characteristics are examined using mathematical modeling and analytical methods. Additionally, existing body armor evaluation standards and testing methods are reviewed. The results indicate that fragmentation represents the dominant lethal mechanism of artillery fire. Although the V50 ballistic test is commonly used to assess fragment resistance, it does not provide a comprehensive evaluation of real-world protection effectiveness. These findings highlight the need for more advanced and realistic assessment methods.
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.