Atomfair Brainwave Hub: SciBase II / Quantum Computing and Technologies / Advancements in quantum computing and materials

Advancements in quantum computing and materials

Showing 49-60 of 265 articles

For protein folding intermediates using quantum-embedded molecular dynamics simulations

Designing fault-tolerant quantum memory with topological insulator interfaces

Probing quantum coherence limits in superconducting qubits with microwave pulse shaping

Observing electron dynamics within attosecond timeframes using laser spectroscopy

Synthesizing future-historical approaches to predict next-generation quantum materials

With embodied active learning in quantum chemistry simulation environments

Bridging quantum biology with information theory to model enzyme tunneling effects

Capturing electron dynamics at zeptosecond resolution to unravel quantum tunneling mechanisms

Femtosecond pulse interactions with exotic quantum materials for ultrafast computing

Anticipating 2035 energy grid demands through quantum-optimized load forecasting

Hybrid quantum-classical algorithms for protein folding trajectory prediction

Optimizing photonic quantum memory efficiency via multimodal fusion architectures