Page 74 - 《爆炸与冲击》2026年第8期
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第 46 卷    第 8 期                   爆    炸    与    冲    击                       Vol. 46, No. 8
                2026 年 8 月                    EXPLOSION AND SHOCK WAVES                          Aug., 2026

               DOI:10.11883/bzycj-2025-0081


                            非金属内肋增强粉末式破门弹的侵彻

                                         效应与附带损伤特性                            *


                                      丁肇银 ,郭志威 ,周    彤 ,张振辉       1,2,3 ,邹俊杰 ,黄广炎  1
                                            1
                                                                            1
                                                           1
                                                   1
                                  (1. 北京理工大学爆炸科学与安全防护全国重点实验室,北京 100081;
                                2. 中国兵器工业第二〇八研究所瞬态冲击全国重点实验室,北京 102202;
                                    3. 中国兵器工业第二〇八研究所火炮系统研究部,北京 102202)

                  摘要: 在现代反恐作战中经常面对快速突入室内的行动任务,破门弹能够有效毁伤门锁或锁链,确保任务的顺利
               进行。采用传统的霰弹枪破门弹破门时,钢珠及其产生的碎片可能对周围人员带来附带伤害,为此提出了一种采用内
               肋增强的多孔薄壁非金属圆筒结构为支撑载体、填充高密度金属粉末的新型低附带毁伤破门弹。具有内支撑结构的
               薄壁圆筒可使弹药在发射过程中保持结构稳定性,提升破门弹的侵彻性能,在击穿门锁后金属粉末的动能快速衰减,
               降低附带毁伤。通过弹道试验和数值仿真研究了新型破门弹侵彻等效钢靶的作用过程和附带毁伤,获得了粉末材料、
               初始动能和内肋结构对毁伤效果的影响,分析了多孔薄壁圆筒结构填充金属粉末结构破门弹的侵彻吸能机理,结果表
               明,二阶内肋结构的破门弹所需初始动能较小,且附带毁伤不足以对周围人员造成致命伤害。
                  关键词: 破门弹;低附带毁伤;高密度金属粉末;有限元法-离散元法
                  中图分类号: O389   国标学科代码: 13035   文献标志码: A


               Penetration efficiency and collateral damage characteristics of powder-type
                         door-breaking projectile reinforced by non-metal inner ribs

                                                                                    1
                                           1
                               1
                                                       1
                   DING Zhaoyin , GUO Zhiwei , ZHOU Tong , ZHANG Zhenhui 1,2,3 , ZOU Junjie , HUANG Guangyan 1
               (1. State Key Laboratory of Explosion Science and Safety Protection, Beijing Institute of Technology, Beijing 100081, China;
               2. State Key Laboratory of Transient Impact, No.208 Research Institute of China Ordnance Industries, Beijing 102202, China;
                3. Artillery Systems Research Department, No.208 Research Institute of China Ordnance Industries, Beijing102202, China)
               Abstract:   In  modern  anti-terrorism  operations,  rapidly  entering  the  room  often  requires  breaching  doors.  Door-breaking
               projectiles can destroy locks or chains to facilitate this. However, traditional shotgun-fired door-breaking projectiles may cause
               collateral damage with their steel shot and fragments. So, this paper presents a new LCD (low collateral damage) breaking
               projectile. It uses an internally ribbed porous thin-walled non-metallic cylinder as the carrier and is filled with high-density
               metal powder. This structure ensures stability during firing, boosting penetration. After breaching, the metal powder quickly
               loses kinetic energy, reducing collateral damage. Ballistic tests and numerical simulations were done to study the breaching and
               collateral damage of this new projectile on steel targets. The effects of powder material, initial kinetic energy, and internal ribs
               were examined. The penetration and energy-absorption mechanisms of the porous cylinder with metal powder were analyzed.
               Results  showed  that  a  2-order  ribbed  breaking  projectile  needs  less  initial  kinetic  energy  and  causes  non-lethal  collateral

               damage. This projectile, with its internal support, maintains stability during firing, enhancing penetration. After breaching, the



                 *   收稿日期: 2025-03-17;修回日期: 2025-11-14
                   基金项目: 国家自然科学基金(12221002)
                   第一作者: 丁肇银(1998- ),男,硕士,1985884090@qq.com
                   通信作者: 郭志威(1994- ),男,博士,助理教授,7520210129@bit.edu.cn
                          周 彤(1987- ),女,博士,副教授,zhoutong@bit.edu.cn


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