American Journal of Advanced Multidisciplinary Research and Innovation

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Volume 8 Issue 5
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Quantum Materials for Next-Generation Computing: Emerging Opportunities in Electronics, Sensing and Energy Technologies

Author(s) Masahiro Nomura
Country United States
Abstract Quantum materials exhibit electronic, magnetic, optical, and topological behavior that cannot be adequately explained through conventional descriptions of independent particles. Their properties arise from quantum confinement, strong electron correlation, spin–orbit coupling, superconductivity, topology, and collective excitations. These characteristics create opportunities for computing systems, low-power electronics, highly sensitive measurement devices, and advanced energy technologies. This simulation-based study develops an application-oriented framework for comparing topological materials, two-dimensional quantum materials, superconductors, and quantum-dot systems across four technological domains: computing, electronics, sensing, and energy technologies.
A multicriteria analytical model was constructed using six dimensions—quantum functionality, operating-condition compatibility, manufacturability, stability, integration potential, and projected energy efficiency. The simulated results indicate that no single material family provides the highest potential across every application. Superconducting materials achieved the strongest illustrative scores for computing and sensing, whereas two-dimensional materials showed the highest electronics potential. Quantum-dot systems produced the strongest simulated energy-technology score because of their tunable optical response and compatibility with photon-management applications.
Topological materials displayed comparatively balanced potential across computing, electronics, and sensing but remained constrained by material purity, interface control, and operating-condition requirements. The findings demonstrate that technological value depends on the alignment between material properties and application-specific engineering requirements rather than on an assumed universal superiority of quantum materials.
Keywords quantum materials, quantum computing, topological materials, two-dimensional materials, superconductors, quantum sensing, quantum dots, energy technologies.
Field Engineering
Published In Volume 8, Issue 1, January-February 2026
Published On 2026-02-03
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