Quantum Physics & Fundamental Quantum Phenomena
Foundational concepts and emerging directions in quantum mechanics, quantum dynamics, quantum information, and many-body quantum phenomena.
Unifying Quantum Frontiers: Exploring Magnetic Phenomena and Next‑Generation Superconducting Technologies
July 27–29, 2027
Paris, France
Sessions
Explore the scientific tracks and focus areas of QPMS-2027.
Foundational concepts and emerging directions in quantum mechanics, quantum dynamics, quantum information, and many-body quantum phenomena.
Quantum materials, correlated electrons, phase transitions, and condensed-matter phenomena relevant to next-generation technologies.
Fundamental and applied aspects of magnetic order, magnetic phase transitions, domains, spin dynamics, and novel magnetic materials.
Fundamental superconducting mechanisms, unconventional superconductors, high-temperature systems, and new frontiers in superconducting phases.
A dedicated track for quantum spin systems, spin liquids, frustration, skyrmions, altermagnetism, and related contemporary spin phenomena.
Topological phases, protected states, topological superconductivity, semimetals, and device concepts based on topology.
Two-dimensional quantum materials, van der Waals heterostructures, twisted systems, moiré superlattices, and correlated flat-band phenomena.
Experimental probes of quantum materials, including transport, scattering, microscopy, and time-resolved spectroscopies.
Josephson effects, superconducting circuits, hybrid qubits, quantum sensors, microwave electronics, and cryogenic quantum technologies.
Spin-based transport, magnonic systems, magnetic memory, spin logic, and quantum electronic devices.
Ultra-low-temperature physics, cryogenic systems, quantum fluids, low-temperature transport, and cryogenic technologies for quantum platforms.
Theoretical modeling, computational methods, high-performance simulation, and AI-assisted discovery for quantum materials and condensed-matter systems.
Quantum nanomaterials, thin films, heterostructures, interface physics, quantum dots, and advanced synthesis methods.
Applications of quantum materials and devices in computing, communication, sensing, metrology, imaging, memory, and emerging quantum technologies.