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Life has existed on Earth for at least 3.5 billion years. That’s a long time for organisms to evolve, leading to complex structures and abilities that are ever-increasingly suited for a species’ survival. Materials scientists, tissue engineers, and roboticists benefit from those eons of evolution, often turning to nature for inspiration. |
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The gumboot chiton, also known as the “wandering meatloaf,” scrapes algae off rocks with its ultrastrong but flexible teeth. (iStock.com/naturediver) |
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A coastal mollusk called the gumboot chiton, aka the “wandering meatloaf,” holds the secret to durable, bioinspired synthetic materials—in its mouth. |
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Using X-rays from Argonne’s Advanced Photon Source, scientists discovered a rare mineral called santabarbaraite in the meatloaf’s stylus (analogous to the root of a human tooth). The strong composite material that comprises the stylus is made of santabarbaraite in a fibrous matrix akin to human bone. The substance inspired the researchers to create a similarly tough synthetic ink for 3D printing of durable materials, such as prostheses and devices for space exploration. |
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Based on bone’s ability to self-strengthen when subjected to mechanical stress, Pritzker School of Molecular Engineering scientists developed a synthetic gel that becomes 66 times stronger when exposed to vibration. |
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Tardigrades—extremely resilient microscopic animals often called water bears—can enter suspended animation by forming a cocoon from a substance that sparked research into a new type of glass. |
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Octopus arms can bend, twist, elongate, and shorten, making them extraordinarily flexible and offering a model for future soft robotic designs. |
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Octopus skin, which can change color and texture, has inspired engineers to develop programmable “camouflaging skin.” |
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A man stretches noodles by hand in Xi’an, China. (iStock.com/estivillml) |
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Biological tissues—skin, muscle, bone—are strong, malleable, and self-healing. But synthetic tissues often exhibit only two of those characteristics. UChicago chemists, hoping to create a material that promises all three, found inspiration in a takeout carton: hand-stretched Chinese noodles. |
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