Sustainable energy solutions via novel material engineering

Developing ruthenium-based interconnects for next-generation semiconductor devices

ruthenium interconnects semiconductor scaling thermal conductivity chip design Moore’s Law

Solid-state battery breakthroughs with sulfide-based electrolytes for safer energy storage

solid-state batteries sulfide electrolytes energy storage battery safety renewable energy

Considering 10,000-year material stability for next-generation nuclear waste encapsulation

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Ultra-stable glass alloys for nuclear waste encapsulation over 10,000 years

nuclear waste storage borosilicate glass long-term stabilization radiation shielding geomaterials

Via plasma-enhanced atomic layer deposition of corrosion-resistant coatings for nuclear fusion reactors

plasma ALD fusion reactors corrosion resistance thin films materials science

Accidental discovery of superconductivity in twisted bilayer graphene at room temperature

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For 2060 fusion power integration using currently available materials

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Enhancing waste-heat thermoelectrics with enzymatic polymerization for self-powered wearable sensors

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Accelerating nanomaterial synthesis via microwave-assisted plasma reactors for perovskite solar cells

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Optimizing perovskite-based carbon capture membranes for industrial-scale CO2 sequestration

perovskite carbon capture industrial emissions membrane technology CO2 sequestration

Combining archaeological metallurgy with modern superconductivity research via scientific folklore methods

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Using waste-heat thermoelectrics for decentralized energy harvesting in urban environments

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