Completed Materials & Manufacturing Chemistry

Power ultrasound as a generic tool for micro/nanoscale processing of materials

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A blast of high-frequency sound, shaped into a precise force field, will stir nanoparticles into molten metal and glue to create stronger, lighter components. Manufacturers struggle to mix tiny particles like graphene or carbon nanotubes evenly into metals and adhesives because they clump together, blocking the ultra-high strength these materials promise. The UltraMAT project uses power ultrasound—the same principle as a medical scanner but at higher intensity—to break up clumps and distribute nanoscale reinforcements uniformly. This addresses a fundamental processing bottleneck that has kept advanced composites from reaching their theoretical performance in real products. If successful, the technology could enable lighter aircraft bodies and car engines that burn less fuel, reducing emissions without sacrificing strength. It also offers a generic tool for industries from welding to casting, allowing online quality checks via pulse-echo ultrasound and big-data analytics. The project validates the approach on titanium-aluminium laminates, metal-matrix composites, and laser welds—joint types critical for next-generation aerospace and automotive structures.

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The project goal is a novel generic technology (UltraMAT) for materials processing of fluid and semi fluid phases that are widespread in manufacturing e.g. in the welding and adhesive joining of components, the manufacture of bulk composite components and in traditional, PM (HIP) and semi solid casting. The key purpose of UltraMAT is to enable production of manufactured components with step improvements in specific strength (yield/ fatigue/ impact) and modulus, fatigue life and thus lightweighting; driven by economic and environmental needs to reduce energy consumption and emissions in manufacture and transport. The enabling tool is power ultrasound with purpose shaped force fields for controlled movement and size creation of uniform nano structures to enable: (1) Production of homogeneously distributed and shaped nanoscale particulates, fibres or grains). (2) Enhancement of interlayer and filler-matrix adhesion bonds.UltraMAT will be validated through the fabrication and testing of samples of a number of key structure/joint types of growing importance especially in aerospace or automotive bodies/engines: (i) Ti/Al fibre laminates (ii) Ti/Al metal matrix composites with fibre/ particulate (ceramic TiC/SiC), Ti/Al laser welding and (iv) Al semi solid casting. Homogenisation performance will be studied using graphene (G) and carbon nanotubes (CNT) because the strong agglomeration tendencies of G and NT is impeding their ability to realise commercially, components of ultra high specific strength. In short pulse echo mode, UltraMAT will self evaluate its performance on line aided by predictive big analytics.

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