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August 13, 2006 Since warfare began, developing armor has been a balance between the need for protection and the need for comfort, flexibility and light weight. A new nanotechnology known as Shear Thickening Fluid (STF) created by scientists at ARL and UDTC looks set to provide the next generation of armor. STF has the ability to make ballistic fabrics highly resistant to penetration when impacted by a spike, knife or bullet without compromising their weight, comfort or flexibility. The potential applications of STF include a wide range of products such as body armor, vehicle armor, helmets, gloves and bomb blankets to protect soldiers and law enforcement officials plus myriad industrial safety applications all thr way through to protective clothing for motorcyclists. When the first products become available later this year, soldiers can expect to be much safer as the liquid body armor can be used in sleeves and pants, which are not usually protected by ballistic vests because they must stay flexible.
Application of shear thickening fluids in material development - ScienceDirect
Polymers, Free Full-Text
Liquid Armor: Nano Particle Technology - ScienceAid
Body Armor - Atomic Rockets
Liquid Armor: Nano Particle Technology - ScienceAid
PPT - The Shear Thickening Fluid Upgrade PowerPoint Presentation, free download - ID:1880866
Polymers, Free Full-Text
The revolutionary liquid armour suit that is made from bullet-proof 'custard
Impact Response of Shear Thickening Fluid (STF) Treated High Strength Polymer Composites – Effect of STF Intercalation Method – topic of research paper in Materials engineering. Download scholarly article PDF and read
Shear Stiffening Gels for Intelligent Anti-impact Applications - ScienceDirect
The Role of Shear-Thickening Fluids (STFs) in Ballistic and Stab-Resistance Improvement of Flexible Armor
Effects of bi-particle-sized shear thickening fluid on rheological behaviors and stab resistance of Kevlar fabrics - Xiayun Zhang, Ting-Ting Li, Hao-Kai Peng, Zhike Wang, Junli Huo, Ching-Wen Lou, Jia-Horng Lin, 2022