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Researchers develop a simple technique for producing 3D porous fiber materials directly from solutions using a standard electrospinning setup, opening doors for customized insulation, absorbents, scaffolds, electrodes.
Researchers develop a new biomaterial fabrication technique combining co-extrusion and 3D printing to produce scaffolds with nanoscale layers, improving cardiomyocyte growth and function.
Researchers develop novel technique combining top-down electron beam control with bottom-up atomic self-assembly, enabling major advancements in automated, reproducible atomic-scale manufacturing.
Researchers develop fully recyclable, self-healing soft robots made of a novel dynamic polymer, enabling rapid wireless reprogramming and reshaping into new functions. The material overcomes previous challenges in recyclability for sustainable soft robotics.
Researchers develop revolutionary buckling metamaterials that leverage elastic instabilities to achieve extreme vibration damping, enabling lightweight yet stiff structures. The materials set hard limits on vibration transmission regardless of input acceleration.
Researcheres have developed a groundbreaking method for high-throughput mechanical exfoliation, enabling low-cost production of van der Waals nanosheets. The technique offers a significant advancement in the scalable fabrication of low-cost devices while maintaining excellent performance.
Researchers are advancing high-density memory storage with an innovative method to form block copolymer structures. By pushing boundaries with unique tetragonally packed inverted cylinders, these novel structures bring us one step closer to ultra-compact future memory devices.
Comprehensive analysis of nanocellulose as a promising component in the development of advanced flexible materials. Emphasizes potential applications in electronics, energy storage, and biomedicine, and investigates the challenges and future perspectives in the field.