Unlocking nature's secrets yields powerful ionic generator
Artificial ion channels computationally designed with biological precision enable new energy harvesting concepts and other applications impossible in nature.
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Artificial ion channels computationally designed with biological precision enable new energy harvesting concepts and other applications impossible in nature.
Researchers have 3D printed liquid crystal elastomers with reprogrammable photochromism and photoactuation, allowing remote and precise control over both color change and shape morphing via light irradiation.
Researchers develop durable, mechanically robust hydrogel fibers with embedded living bacteria cells using an innovative microfluidic spinning method and synthetic biology techniques for enhanced sustainable materials.
Embedding antioxidant nanoparticles that mimic enzymes into colored contact lenses creates an eye shield that protected against cell damage and inflammation in animal studies, presenting a new way to prevent vision-threatening eye diseases.
Researchers have developed a new method to 3D print microstructures that can be stabilized by light or erased by darkness. The advance could lead to responsive materials and structures with controllable properties.
Researchers create thermochromic fluorescent materials with unprecedented sensitivity to heat, allowing multi-level encryption of hidden information that is revealed at precise temperatures.
Researchers use 3D printed mushroom-like structures to achieve unprecedented control over the speed, path and patterning of bouncing water droplets. This new surface offers advances in self-cleaning, water harvesting and green energy technologies.
Researchers have unveiled groundbreaking ultralight super-insulating ceramic fibre materials to feed the urgent industrial need for advanced insulation in harsh environments, which marks a significant step toward a more sustainable and energy-efficient future.