Advanced Functional Materials · 2021 · 26 citations · 20 references
Natural SciencesMaterials EngineeringMaterials ScienceAerospace MaterialsPolymer EngineeringStructural Materials3D PrintingComposite MaterialsComposites ManufacturingFiber-reinforced CompositesLightweight Structural MaterialsPolymer ProductionExtrusionFibersLightweight MaterialsLightweight StructuresLiquid Crystal PolymersLiquid Crystalline PolymersMechanical PerformanceRecyclability
Abstract Fiber‐reinforced polymers are widely used as lightweight materials in aircraft, automobiles, wind turbine blades, and sports products. Despite the beneficial weight reduction achieved in such applications, these composites often suffer from poor recyclability and limited geometries. 3D printing of liquid crystal polymers into complex‐shaped all‐fiber materials is a promising approach to tackle these issues and thus increase the sustainability of current lightweight structures. Here, we report a spin‐printing technology for the manufacturing of recyclable and strong all‐fiber lightweight materials. All‐fiber architectures are created by combining thick print lines and thin spun fibers as reinforcing elements in bespoke orientations. Through controlled extrusion experiments and theoretical analyses, we systematically study the spinning process and establish criteria for the generation of thin fibers and laminates with unprecedented mechanical properties. The potential of the technology is further illustrated by creating complex structures with unique all‐fiber architectures and mechanical performance.
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Liquid crystalline spinning of spider silk
Fritz Vollrath, David P. Knight · Nature · 2001 · 1.6K citations
3D‐Printing of Lightweight Cellular Composites
Brett G. Compton, Jennifer A. Lewis · Advanced Materials · 2014 · 1.6K citations · Full text
Fabrication and Properties of Carbon Fibers
Xiaosong Huang · Materials · 2009 · 931 citations · Full text
Natural Sciences, Materials Engineering, Materials Science +17