Track 6: Quantum Materials
These are materials where the astonishing effects of quantum mechanics give rise to unique and frequently amazing features. While all materials have quantum mechanical features, 'quantum materials' have properties including quantum fluctuations, quantum entanglement, quantum coherence, and topological behaviour that are unique to them.
The reality is that quantum materials are in technology that you have likely previously seen, such as hospital MRIs, which employ superconductors, and hard disc drives, which use huge magneto resistance sensors. Quantum materials, on the other hand, are still uncommon in energy systems.
Strong interactions between magnetic moments, electrons, and the underlying crystal structure are common in today's most fascinating materials, generating strong linkages between these distinct parts of the system. Such materials can exhibit fascinating physical behaviours that necessitate the development of novel quantum mechanical models to explain. Superconductors, magnets, topological insulators, and multiferroics are among examples.
Related Conference of Track 6: Quantum Materials
7th World Congress on Emerging Trends in Science, Engineering and Technology
7th International Conference on Astronomy, Astrophysics and Space Science
Track 6: Quantum Materials Conference Speakers
Recommended Sessions
- Track 10: Quantum Chemistry
- Track 11: Quantum entanglement
- Track 12: Quantum Field Theory (QFT)
- Track 13: Quantum Sensing
- Track 14: Astrophysics
- Track 15: Quantum Simulation
- Track 16: Quantum numbers and orbitals
- Track 17: Quantum Information Science(QIS)
- Track 18: Molecular Physics
- Track 19: Quantum electrodynamics (QED)
- Track 1: Quantum Technology
- Track 20: In-depth Quantum Physics
- Track 2: Quantum Computing
- Track 3: Nuclear physics
- Track 4: Wave function
- Track 5: Quantum Dynamics
- Track 6: Quantum Materials
- Track 7: Quantum cryptography
- Track 8: Quantum Mechanics
- Track 9: Quantum Gravity
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