Uploaded August 2025 | Updated September 2026, 2 hours ago
Kurt Zeller will summarize gravitomagnetic theory and briefly highlight recent observations that affirm its validity. He will also discuss possible propulsion applications and potential astronomical implications.
The gravitational electromagnetic analogy postulates that our gravitational field is composed of two components: (1) the gravito-electric field (common gravity) and (2) the gravito-magnetic field (a weak inductive orthogonal component). Gravitomagnetic fields are induced via net angular momentum of a mass current – directly analogous to magnetic fields resulting from an electrical current.
Translating gravitomagnetic theory to the quantum level may suggest that measurable gravitational fields could be created by driving coherent nucleon spin across a well-organized lattice. Experimental anomalies surrounding superconductors may be pointing us in the right direction.
Kurt Zeller will summarize gravitomagnetic theory and briefly highlight recent observations that affirm its validity. He will also discuss possible propulsion applications and potential astronomical implications.
The gravitational electromagnetic analogy postulates that our gravitational field is composed of two components: (1) the gravito-electric field (common gravity) and (2) the gravito-magnetic field (a weak inductive orthogonal component). Gravitomagnetic fields are induced via net angular momentum of a mass current – directly analogous to magnetic fields resulting from an electrical current.
Translating gravitomagnetic theory to the quantum level may suggest that measurable gravitational fields could be created by driving coherent nucleon spin across a well-organized lattice. Experimental anomalies surrounding superconductors may be pointing us in the right direction.
