New stability rules clarify quantum phase categorization
Researchers identified stability rules that differentiate quantum phases previously grouped incorrectly. The findings suggest traditional methods may oversimplify phase distinctions.
Researchers identified stability rules that differentiate quantum phases previously grouped incorrectly. The findings suggest traditional methods may oversimplify phase distinctions.
Physicists used a hybrid quantum computer to observe the Aharonov–Bohm effect in a simulation. The experiment involved qubits and quantum oscillators, and the effect was detected through changes in particle behavior.
The study suggests that white dwarfs with strong magnetic fields may exceed the Chandrasekhar limit. This finding is based on simulations and theoretical models.
Researchers observed precursor states of exciton condensation using ultrafast core-level spectroscopy. These findings suggest collective behavior may form before long-range order emerges in quantum materials.
A physics model suggests a fundamental trade-off between prediction accuracy and energy use in AI systems. The study is based on simulations and theoretical analysis.
A superconducting circuit was used to link smaller groups of photons into larger entangled states. The researchers found that this method may help improve quantum computing systems.
Three quantum-inspired models suggest black holes may emit distinct oscillation patterns. The findings are based on theoretical simulations and do not yet include observational data.