J 2025

High-Tech Models for Simulating the Wounding Effects of Projectiles of Small Calibres: Benefits for Security Management

JUŘÍČEK, Ludvík; Katarína PAGÁČOVÁ; David MAZÁK a Olga VOJTĚCHOVSKÁ

Základní údaje

Originální název

High-Tech Models for Simulating the Wounding Effects of Projectiles of Small Calibres: Benefits for Security Management

Autoři

JUŘÍČEK, Ludvík; Katarína PAGÁČOVÁ; David MAZÁK a Olga VOJTĚCHOVSKÁ

Vydání

HighTech and Innovation Journal, 2025, 2723-9535

Další údaje

Jazyk

angličtina

Typ výsledku

Článek v odborném periodiku

Obor

30501 Forensic science

Stát vydavatele

Itálie

Utajení

není předmětem státního či obchodního tajemství

Odkazy

Označené pro přenos do RIV

Ano

Organizační jednotka

Ambis Univerzita

EID Scopus

Klíčová slova anglicky

Physical Model;Ballistic Experiment;Complex Gunshot Injury;Indirect Identification Method; Projectiles of Small Calibres;Live Tissue Substitution;Wounding Effect of aProjectile;Wounding Potential of aProjectile

Štítky

Změněno: 19. 3. 2026 10:59, Ing. Kateřina Lendrová

Anotace

V originále

The aim of this study is to analyse the effects of projectiles of small calibres on the human femur using an innovative indirect identification method. A heterogeneous physical model was developed that combines ballistic gelatine for soft tissues and porcine femur as an analogue for human bone to simulate gunshot injuries under ethical and economic conditions. The study evaluated three types of ammunition: 9mm Luger pistol cartridges and two micro-calibre rifle cartridges, 5.56×45 mm (SS 109) and 5.45×39 mm (7H6). Ballistic testing measured impact and exit velocities, assessed bone tissue destruction, soft tissue damage, and the temporary cavity created by projectiles. The findings reveal that micro-calibre rifle projectiles cause up to twice the bone destruction and more extensive soft tissue damage compared to pistol ammunition. The study also highlights the significant role of liquid structures in the medullary cavity in amplifying bone damage. These results improve ballistic testing methodologies, offering valuable insights for crisis management, security operations, and the development of protective equipment. The proposed model serves as a critical toolfor understanding the effects on human tissues, aiding in forensic analysis, and advancing experimental ballistics. This research opens new opportunities for applications in the security and health disciplines.