A peer-reviewed scientific repository investigating gravitational anomalies, quantum vacuum physics, General Relativity constraints, and high-precision force metrology.
Explore direct free-fall measurements of trapped neutral antihydrogen atoms at CERN's Antiproton Decelerator. Discover how the Weak Equivalence Principle and General Relativity rule out gravitational repulsion at greater than 5-sigma significance.
Read ALPHA-g Analysis & Calculator ➔A formal physics breakdown of antigravity into 4 operational categories and why true gravity cancellation requires altering gravitational mass rather than applying mechanical lift.
An analysis of Gauss's Law for gravity, testing Eugene Podkletnov's rotating superconductor claims, and reviewing NASA MSFC replication null results.
Direct free-fall measurements of antihydrogen atoms at CERN, testing the Weak Equivalence Principle and General Relativity with direct experimental data.
Relativistic analysis of Hermann Bondi's runaway motion paradox, Alcubierre warp drive spacetime metrics, and Null Energy Condition (NEC) violations.
How diamagnetism, quantum flux pinning in Type-II superconductors, and active feedback bypass Earnshaw's theorem to achieve stable levitation.
A laboratory checklist and error source matrix for eliminating thermal expansion, Lorentz forces, and acoustic artifacts in sub-micro-Newton experiments.
Ongoing magnetic trap and interferometry runs at CERN's ELENA facility aim to constrain antimatter gravitational acceleration down to 1% and 0.1% precision benchmarks.
Space-based differential accelerometer measurements confirm the Weak Equivalence Principle between titanium and platinum-rhodium test masses to 15 decimal places.
Advances in atomic force microscopy and micro-electromechanical systems (MEMS) enable direct measurement of zero-point vacuum boundary forces at sub-100 nanometer gaps.