Researchers from Chalmers University of Technology introduce a new class of quantum material leveraging magnetism for robust quantum states, promising stable quantum machines.
Quantum computing faces challenges in maintaining fragile qubit quantum states against disturbances like thermal variations and magnetic fields.
Topologically ordered materials offer qubit protection, but finding suitable natural materials has been challenging, hindering experimental realization.
A new quantum design principle based on magnetism bypasses limitations of spin-orbit coupling, creating stable quantum states in Kondo lattice materials.
Magnetism-based topological engineering broadens material exploration possibilities for quantum hardware development.
Experimental and theoretical analyses confirm the existence of topologically protected zero modes in the engineered lattice, a transformative step in quantum computing.
A computational tool developed by the researchers enables screening of materials for topological behavior, aiding material synthesis and characterization.
The study heralds a paradigm shift in constructing qubits with intrinsic noise resistance, potentially paving the way for scalable quantum information platforms.
The implications extend to spintronics and quantum sensors, where control over topological and magnetic properties is crucial for technological innovations.
The research democratizes the search for resilient quantum materials, revolutionizing the landscape of quantum computing with everyday magnetism.