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Sustainable energy solutions via novel material engineering

Showing 109-120 of 409 articles

Designing hydrogen storage metal-organic frameworks with tunable pore geometries for clean energy applications

Ruthenium interconnects for sub-3nm semiconductor energy efficiency gains

Via plasma-enhanced atomic layer deposition for quantum dot solar cells

Employing germanium-silicon strain engineering for high-efficiency quantum dot solar cells

Optimizing perovskite-silicon tandem cells with counterintuitive biological hacks from extremophile organisms

For solid-state battery breakthroughs at zeptosecond resolution dynamics

Using waste-heat thermoelectrics aligned with El Niño oscillations for energy harvesting

Via microwave-assisted synthesis to accelerate the development of sustainable battery materials

Optimizing perovskite-silicon tandem cells with flow chemistry robots for scalable solar production

Synthesizing perovskite-based carbon capture membranes for direct air extraction

Optimizing hydrogen storage efficiency via machine-designed metal-organic frameworks

Upgrading geothermal energy extraction via targeted nanoparticle-enhanced fracking