Already widely recognized for innovative research to develop “self-healing” structural materials, an interdisciplinary research team published an article in the journal Advanced Materials detailing research on vascularized structural composites, creating materials that are lightweight and strong with potential for self-healing, self-cooling, metamaterials, and more.
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Already widely recognized for innovative research to develop “self-healing” structural materials, an interdisciplinary research team published an article in the journal Advanced Materials detailing research on vascularized structural composites, creating materials that are lightweight and strong with potential for self-healing, self-cooling, metamaterials, and more.
The team’s research is directed toward the creation of new materials systems that exhibit autonomy—an ability to achieve adaptation and response in an independent and automatic fashion.
Self-healing electronics--When a gold circuit is broken, microcapsules full of liquid metal rupture, filling in the crack and restoring the circuit.
Noting that the structural material is more than just another microfluidic device, Sottos said, “It’s capable of many functions that mimic biological systems. That’s a big jump.”
Those kinds of leaps are possible in part because the team works well together, building on individual strengths to be creative and productive. Their research has been selected for cover stories in Nature and several scientific journals over the past five years. This research was supported by the Air Force Office of Scientific Research.
“I want to work on projects that can make a significant impact on society. The concept of autonomic functionality in materials—a smart material—is very interesting to me,” said White. “It became clear to me that to achieve this goal I had to look beyond the borders of engineering. Yet, you can’t force interdisciplinary research, it begins from strong friendships.”