Advanced materials for energy and computing

Within quantum coherence windows, how do topological qubits outperform traditional superconducting qubits?

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In quantum vacuum fluctuations near superconducting qubit architectures

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Quantum error correction strategies at the thermodynamic coherence limits of qubits

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For room-temperature superconductors in quantum computing and energy grids

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Employing magnetic skyrmion-based interconnects for ultra-low-power computing architectures

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Advancing quantum computing through magnetic skyrmion-based interconnects for error correction

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Using waste-heat thermoelectrics for passive cooling in high-performance computing systems

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In attojoule energy regimes for ultra-low-power quantum computing

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Designing exascale system integration frameworks for lattice cryptography-based biochemical simulations

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Optimizing quantum error correction via backside power delivery networks in superconducting qubits

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Developing sparse mixture-of-experts models for energy-efficient AI inference

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Controlling quantum coherence at spin relaxation timescales in molecular qubits

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