Exploring the Invisible Forces of Angular-Momentum Waves in Physics
Professor Jing-Ling Chen's team uses the Yang-Mills equations to predict angular-momentum waves and proposes detecting them through the rapid spin oscillations of Dirac electrons.
Field
Physics & Space
Fundamental physics, astronomy and mathematical ideas.
Cracking Quantum Secrets: Hardy’s Paradox Reimagined
Professor Jing-Ling Chen and Professor Kai Chen's team devised a realigned Hardy's paradox that produces stronger violations of local realism and tolerates experimental errors better than the original.
Exploring the Evolving Universe: A New Theory on Constant Changes
Professor Taekoon Lee proposes a model in which nature's coupling constants slowly change as the universe expands, because the energy cutoff of field theories depends on cosmic scale.
Exploring the Fabric of the Universe: Hadrons to Cosmological Constant
Professor Keh-Fei Liu argues that a quantum effect called the trace anomaly accounts for most of the proton's mass and confines quarks much as vortices are confined in superconductors.
Bridging Quantum Mechanics and Cosmos with Innovative Relativity Approach
Dr. Cláudio Nassif Cruz reviews his Symmetrical Special Relativity, which adds an invariant minimum speed to spacetime, and proposes it as an explanation for the cosmological constant.
Physics in deformable spacetime
Professor Güngör Gündüz proposes that physical laws and particle properties such as mass, charge and spin emerge from minimal-surface geometry in a deformable spacetime.
Transforming Data Analysis with the Introduction of Suja Distribution
Professor Hanaa Abu-Zinadah and Tamadur Alsumairi introduce the Suja distribution, a flexible one-parameter model for lifetime data, and compare methods for estimating its parameter.
The Surprising Ineffectiveness of a Key Quantum Theory Principle
Professor Paul Stevenson argues that the principle of maximal conformality fails to remove renormalisation-scheme dependence in QCD, because a key quantity it relies on is not invariant.
The Dawn of Enhanced Particle Control with Optical Vortex Technology
Francisco Muñoz-Pérez's team designed a multiplexed spiral phase mask that creates concentric optical vortices, letting optical tweezers trap several microparticles and send each orbiting independently.
Light Particle Meets Atom, Revolutionizes Communication
Professor Yuri Rostovtsev's team calculated how a single atom shifts the path of a single photon in an interferometer, extending the idea of a refractive index to the quantum level.
New Discoveries Challenge Everything We Know About Light
Dr. Adolfo Santa Fe Dueñas proposes the Procrustean Bed effect, a theory in which light's frequency, wavelength and speed change between source and observer, implying a light-carrying medium.