In a world where its citizens are vulnerable to ever-increasing threat of projectiles, news of a particle-based shock-absorbing material that is capable of stopping projectiles travelling at speeds of over 3000 miles per hour is an incredible breakthrough for defence technologies.
Scientists at University of California Berkeley have taken an exciting step in defence innovation with the development of this new material, which is specialised to absorb the impact of projectiles travelling at never-before-seen speeds. The team’s findings were detailed in their recently published paper, entitled “Highly Durable Particle-Based Shock-Absorbing Material for Hypervelocity Impact Protection”.
The material, which is constructed of two layers of finely tuned particles held together by a glue-like substance, is capable of stopping projectiles travelling at supersonic speeds. On impact, the particles dynamically rearrange between layers, dissipating the energy of the projectile and protecting whatever lies beneath. The particles are designed to remain intact and effective even after multiple impacts.
The material also demonstrates excellent heat resistance; tests have shown that it is capable of withstanding temperatures of up to 300 Celsius. Its heat resistance highlights potential applications for the material within the spacesuit industry, which require suitable barriers against extreme temperatures in outer space.
This news brings hope for the future of protection against supersonic projectiles. Currently, the best defence technology is able to absorb the impacts of projectiles travelling well below 3000MPH— significantly slower. The University’s new material is set to revolutionise the global defence industry, by making a reliable solution to the previously unsurpassable projectile threat readily available.
In summary, the University of California Berkeley have taken the world of defence technologies by storm with the invention of a particle-based shock-absorbing material that is capable of stopping projectiles travelling at speeds of over 3000MPH. The material demonstrates impressive heat resistance, opening up possibilities of commercial use. It is set to be a game changer in the protection against supersonic projectiles.
