
Physicists Discover Tiny Flaw in Time Itself Through Quantum Collapse Theory
New research suggests gravity-linked quantum processes could blur time at the most fundamental level, revealing hidden limits to precision.
The physics desk
Physics from the quantum to the cosmos: particle physics, quantum computing, astrophysics, cosmology and the discoveries that change what is possible.

New research suggests gravity-linked quantum processes could blur time at the most fundamental level, revealing hidden limits to precision.

A new Nature paper from the Niels Bohr Institute slashes black-hole mass estimates 100-fold and finally explains the strange crimson points scattered across Webb's deep-field images.

New research suggests spontaneous quantum collapse processes linked to gravity could create tiny limits on how precisely time can ever be measured.

Researchers demonstrate powerful fourth-order quantum effect by combining simple forces, making previously hidden quantum behaviors visible and controllable.

New research reveals spontaneous collapse processes linked to gravity could subtly blur time, setting fundamental limits on precision.

Researchers capture split-second chaos as copper atoms lose and regain electrons, creating highly charged ions in extreme conditions.

Scientists achieve quantum teleportation between separate devices over open-air link, marking crucial step toward practical quantum internet.

Researchers capture the split-second chaos that unfolds when powerful laser flashes transform matter into superheated plasma, tracking electron behavior in unprecedented detail.

Scientists demonstrate wave-particle duality in positronium, opening new frontiers for antimatter research and potential gravity tests never before possible.

Breakthrough research captures copper atoms forming and dissolving highly charged ions in unprecedented detail, advancing laser fusion diagnostics.

Researchers demonstrate fourth-order quantum effects using trapped ions, opening new frontiers for quantum technology and simulation.

A new analysis of 650 billion B-meson decays at CERN reveals one of the strongest hints in years of physics beyond the Standard Model. A discovery may be within reach.

Scientists capture unprecedented view of copper atoms losing and regaining electrons during extreme ionization process using cutting-edge laser technology.

Breakthrough quantum teleportation over 270-meter distance marks crucial step toward practical quantum internet infrastructure.

Oxford researchers create powerful new method to control quantum systems using trapped ions, making previously hidden quantum behaviors visible and potentially revolutionizing quantum technology.

Researchers use advanced microscopy to directly visualize how electronic order evolves during phase transitions, revealing unexpected patches and gradual breakdown of quantum states.

Hamburg university students construct functional axion detector with limited resources, establishing new experimental limits on dark matter properties.

Scientists demonstrate first-ever fourth-order quantum effect using trapped ions, opening new frontiers for quantum technology applications.

Researchers use advanced microscopy to directly visualize how charge density waves evolve across phase transitions, revealing unexpected persistence of electronic order.

Scientists observe wave-like interference in positronium for the first time, opening new frontiers in antimatter research and gravity studies.

International team successfully teleports photon polarization between separate quantum dots through open air, marking key milestone for quantum internet.

International research team achieves first-ever quantum teleportation between separate quantum dots over open-air link, marking key step toward quantum internet.

Researchers achieve breakthrough by demonstrating wave-particle duality in positronium, exotic matter made of electron-positron pairs.

International team successfully teleports polarization state across open-air link in breakthrough for quantum communication networks. Achievement marks crucial step toward quantum internet.

Scientists observe wave-particle duality in exotic positronium for the first time, opening new paths for antimatter research and fundamental physics tests.

Scientists observe wave-particle duality in positronium for the first time, opening new frontier for antimatter research and gravity tests.

Breakthrough demonstrates photon state transfer between independent quantum dots, marking crucial step toward quantum internet infrastructure.

Breakthrough experiment reveals unexpected synchronized movement that challenges 70-year-old theory of superconductivity.

Researchers achieve first-ever wave interference in positronium, opening new possibilities for antimatter experiments and gravity tests.

Researchers observed wave-like interference in positronium for the first time, strengthening quantum mechanics while opening new paths for antimatter gravity experiments.