Superconductivity Quantum Mechanics Magnetism Spintronics Electronic Properties Materials Science Topological Phases Phase Transitions Quantum Materials Quantum States Graphene Excitons Many-Body Physics Phonons Semiconductors Quantum Gases Crystallography Material Science Quasiparticles Two-Dimensional Materials Electron Behavior Symmetry Breaking Topological Insulators Nanotechnology Quantum Hall Effect Magnetic Materials Antiferromagnetism Surface Physics Quantum Fluids Active Matter Topological States of Matter Experimental Techniques Magnetotransport Quantum Computing Ferromagnetism Particle Interactions Spectroscopy Time Crystals Topological Materials Magnetic Fields Anyons Statistical Mechanics Photonic Crystals Transport Phenomena Quantum Criticality Superfluidity Lattice Models Liquid Crystals Supersolids Bose-Einstein Condensate Quantum Physics Band Theory Ultracold Atoms 2D Materials Heterostructures Superconductors Quantum Transport Nanoscience Quantum Spin Liquids Electron-Phonon Interaction Matrix Product States Electronic Topology Molecular Interactions Soft-Coulomb Systems Superconducting Materials Topological Phenomena Collective Dynamics Disorder Quantum Effects Acoustics Electrical Conductivity Research Contributions Defects in Materials Correlated Electrons Neutron Scattering Topological Effects Topological Physics Crystals Non-equilibrium Systems Dynamical Systems Moiré Materials Electronic Structure Materials Characterization Superionic Conductors Solid State Physics Crystal Structure Twistronics Disordered Systems Atomic Interactions Organic Semiconductors Non-Equilibrium States Many-Body Problem Levitated Particles Impurities Molecular Physics Boron Allotropes Nanophysics Graphene Properties Non-Hermitian Systems Quantum Spin Systems
Together, the advances chart practical routes to stronger, more coherent nickelate superconductivity.
