Architectural element capable of withstanding ballistic impacts and / or shock waves

• 1. 一种带冲击头缓冲结构的气压弹道式冲击波治疗仪 [P] . 中国专利： CN208405309U . 2019.01.22
• 2. 一种带冲击头缓冲结构的气压弹道式冲击波治疗仪 [P] . 中国专利： CN107648029A . 2018-02-02
• 3. Architectural element capable of withstanding ballistic impacts and / or shock waves. [P] . ES1075286U . 2011-09-08

  机译： 能够承受弹道冲击和/或冲击波的建筑元素。

• 4. ARCHITECTURAL COMPONENT CAPABLE OF WITHSTANDING BALLISTIC IMPACTS AND/OR THE IMPACT OF EXPLOSIVE WAVES [P] . 世界知识产权组织专利： WO2013004877A1 . 2013-01-10

  机译： 具有持续弹道影响和/或爆炸波影响的建筑组件

• 5. SIMPLE CONSTRUCTION METHOD CAPABLE OF CONSTRUCTING AND ASSEMBLING CIVIL ENGINEERING ARCHITECTURAL STRUCTURE WITHSTANDING EARTHQUAKE, LAND SUBSIDENCE AND IMPACT AND HAVING LIFE OF LONG YEARS [P] . 日本专利： JP2005113649A . 2005-04-28

  机译： 能够构建和组装具有多年地震，地面沉降和影响力并具有生命力的土木工程建筑结构的简便施工方法

• 1. Virtual ballistic impact testing of Kevlar soft armor: Predictive and validated finite element modeling of the V0-V100probabilistic penetration response [J] . Gaurav Nilakantan, Suzanne Horner, Virginia Halls, 兵工学报（英文版） . 2018,第003期
• 2. Finite element analysis of controlling the TC4 thin plate weldment wave-like deformation by welding with impacting rotation [J] . 张勇, 杨建国, 刘雪松, 中国焊接：英文版 . 2010,第004期
• 3. Steganographic Technique Capable of Withstanding RQP Analysis [J] . 王朔中, 张新鹏, 等 上海大学学报：英文版 . 2002,第004期
• 4. Closed-form solution for shock wave propagation in density-graded cellular material under impact [J] . Vijendra Gupta, Addis Kidane, Michael Sutton 力学快报(英文版) . 2021,第005期
• 5. Syn-eruptive, soft-sediment deformation of deposits from dilute pyroclastic density current: triggers from granular shear, dynamic pore pressure, ballistic impacts and shock waves [J] . G. A.Douillet, B.Taisne, èTsang-Hin-Sun, Solid Earth . 2015,第2期
• 6. ESMA stress-test shows clearing houses are capable of ‘withstanding severe shocks’ [J] . Metal Bulletin Daily . 2020,第9673a5期
• 7. Numerical simulations of fabric shields for bulletproof vest: determining the number of sheets to withstand ballistic impacts [J] . Alex Alves Bandeira Latin American Journal of Solids and Structures . 2020,第4期
• 8. Effects of shock-waves induced by ballistic impact on a woven glass fiber/epoxy composite [C] . A. M. da Costa Junior, C. Thaumaturgo 1995 International Conference on Metallurgical and Materials Applications of Shock-Wave and High-Strain-Rate Phenomena (EXPLOMET'95) held in El Paso, Texas, August 6-10, 1995; . 1995
• 9. Multi-scale Finite Element Modeling of Multi-ply Woven Fabrics under Ballistic Impacts [D] . Palta, Emre 2019
• 10. Ballistic shock wave lithotripsy in an 18-year-old thoroughbred gelding. [O] . J Koenig, M Hurtig, S Pearce, 1999
• 11. Syn-eruptive, soft-sediment deformation of deposits from dilute pyroclastic density current: triggers from granular shear, dynamic pore pressure, ballistic impacts and shock waves [O] . Douillet G. A., Taisne B., Tsang-Hin-Sun È, 2015
• 12. Standardized Laboratory Test Requirements for Hardening Equipment to Withstand Wave Impact Shock in Small High Speed Craft. [R] . Murphy, H. P., Petersen, S. M., Coats, T. W., 2017

• 1. Analysis of Impactful Factors on Performance in Combining Architectural Elements of IoT [J] . Shinji Kikuchi ,Shodai Watanabe ,Takahiro Kenmotsu . 物联网（英文） . 2017,第4期
• 2. 肩关节粘连松解术后气压弹道式冲击波治疗糖尿病冻结肩的疗效观察 [C] . 贺纯静 ,高华琳 ,苍成友 . 全国第四次麻醉药理学学术会议暨2013年贵州省麻醉学术年会 . 2013
• 3. 骨科弹道式冲击波结合当归四逆汤加味治疗粘连期风寒湿型肩周炎的临床疗效观察 [A] . 罗圳林 . 2018