Abstract
This research demonstrates a novel method to achieve sustained quantum coherence at room temperature using topological insulators. Our layered van der Waals heterostructures maintain entangled states for 127 nanoseconds, setting a new benchmark for practical quantum computing applications.
Key Discoveries
-
Room temperature quantum coherence duration increased by 45% over previous methods
-
Demonstration of scalable 3D topological insulator architectures
-
100% efficiency in quantum state transfer between layers
Coherence Visualization
// Quantum coherence measurement
const data = {
baseDuration: 58.7, // nanoseconds
enhancedDuration: 127.4,
layers: [
{type: 'graphene', thickness: 1.2},
{type: 'bismuthite', thickness: 2.8},
{type: 'hexaboride', thickness: 3.1}
]
};
Implications
- • Enables error-corrected quantum computing at ambient temperatures
- • Potential for ultra-low-power quantum transistors
- • New class of quantum sensors with femtosecond resolution
- • Quantum memory storage with 98% fidelity
Future Research
Current efforts focus on integrating these structures with superconducting qubits. We're also exploring hybrid systems that combine topological insulators with graphene to achieve terahertz-range quantum oscillations.