Blood Clot Mechanism Will Be Implemented In Self-repairing Materials (+VIDEO)

future, futuristic, MIT, Alfredo Alexander-Katz, self-healing materials, Willebrand factor, vWF, blood clot mechanism, Nature Communications, technology futurist, technology news, futurist technology
When you cut yourself your body stops the bleeding and closes off the wound due to blood clotting. A team led by MIT assistant professor of materials science and engineering Alfredo Alexander-Katz is currently studying this complex biological mechanism as a new model for producing self-healing materials. As long as the usual fluid is flowing, it doesn’t become solidify, but during the experiment they discovered just the opposite: the faster the blood flows, the faster a clot forms. The process of blood clotting involves platelets (nucleus-free blood cells acting as building blocks for a blood clot) and a biopolymer molecule called Willebrand factor (a long-chain molecule that floats in the bloodstream, coiled up like a roll of adhesive tape). In case of an injury, as blood flow increases, the flow causes the vWF to stretch out; when coiled up the vWF just rolls by, but when stretched, the exposed sticky surfaces start to catch hold of the platelets and entangle them. MIT team hopes to implement the blood clot mechanism in a new model for a self-repairing material that could find a wide range of applications. The ability to control the process by controlling the rate of flow would make it ideal for everything from inks to self-healing tires., MIT

Toyota FT-Bh
3D Printed Bone Used For Transplantation. The First Time.
Worried About Global Warming? Artificial Clouds May Cool The Planet.
Volvo's Active High Beam Control Enhances Visibility In The Dark
iMotion – 3D Motion Controller With Haptic Feedback
NASA Approves Space Launch System, The Most Powerful Rocket Ever, For Deep-Space Travel
This New Plane Has Panoramic Views - But No Windows
J. Craig Venter: We Now Have The Power – But Not The Wisdom – To Control Evolution
Soft Material Bioprinting
The Highly Biomimetic Anthropomorphic Robotic Hand