Condensed Matter
2 reportsCondensed Matter is studied through equations, measurable predictions, calibrated experiments, and tests of competing physical models. Understanding depends on magnetism, quantum materials, and primary observations, including the conditions under which a model, proof, or explanation applies.
Magnetism and quantum materials are considered together as the evidence changes. The resulting analysis addresses how the concept is defined and tested and where models fail, distinguishing formal consequences from intuition, analogy, or application.
Magnetism and quantum materials are considered together as the evidence changes. The resulting analysis addresses how the concept is defined and tested and where models fail, distinguishing formal consequences from intuition, analogy, or application.
Coupled Laser Array Reveals Nonlinear Effects in Percolation Transition
A team has experimentally realized percolation using a 100-laser array, uncovering how nonlinear interactions shift the critical threshold and alter cluster formation compared to idealized models
Continuous Models Challenge Sudden Quantum Wavefunction Collapse
A new theoretical framework models quantum measurement as a continuous, stochastic process, offering an alternative to the traditional view of abrupt wavefunction collapse and providing new tools for quantum control and algorithm design