Using topological insulators for low-power spintronic memory devices in quantum computing
topological insulators
spintronics
quantum memory
low-power devices
coherence preservation
Achieving picometer precision in quantum dot placement for next-gen quantum computing
quantum dots
picometer precision
quantum computing
qubit placement
nanofabrication
Optimizing quantum error correction codes via self-supervised curriculum learning
quantum computing
error correction
machine learning
curriculum learning
qubits
Quantum error correction at coherence limits using topological qubit arrays
surface codes
anyonic systems
cryogenic control
quantum supremacy
error thresholds
Through sim-to-real transfer for scalable quantum error correction protocols
quantum computing
error correction
simulation training
machine learning
qubit stability
Optimizing spin relaxation timescales for quantum computing coherence
spin relaxation
quantum coherence
qubit stability
solid-state physics
quantum computing
Optimizing drug discovery using computational retrosynthesis with quantum-inspired algorithms
computational retrosynthesis
quantum algorithms
drug discovery
synthetic pathways
molecular optimization
Automated retrosynthesis platforms for rapid drug discovery using AI and quantum computing
automated retrosynthesis
drug discovery
AI
quantum computing
Using forbidden physics concepts to achieve room-temperature superconductivity in hybrid materials
exotic superconductivity
quantum anomalies
hybrid materials
room-temperature superconductors
Using carbon nanotube vias for ultra-high-density interconnects in quantum computing chips
carbon nanotubes
quantum computing
interconnects
chip design
nanofabrication
Fusing Byzantine mathematics with quantum algorithms for optimized error correction codes
quantum computing
Byzantine algebra
error correction
QEC
historical mathematics
Using gate-all-around nanosheet transistors for next-generation quantum computing chips
gate-all-around transistors
quantum computing
nanosheet tech
chip scaling
coherence time