Nassim Haramein
Nassim Haramein has spent more than 30 years researching and discovering connections in physics, mathematics, geometry, cosmology, quantum mechanics, biology and chemistry as well as anthropology and archeology. These studies led Haramein to groundbreaking theories, published papers and patented inventions in unified physics, which are now gaining worldwide recognition and acceptance. Haramein’s findings are based on a fundamental geometric quantization of spacetime, formalizing a unification between the quantum scale and cosmological-sized objects, including the universe itself. Haramein's seminal paper “Quantum Gravity and the Holographic Mass” was published in the peer-reviewed journal Physical Review & Research International in 2013. Utilizing a generalized holographic principle, the paper predicted a precise value of the charge radius of the proton which disagreed with the Standard Model by 4%. This prediction was later confirmed by a team of scientists at the Paul Scherrer Institute utilizing muons in a proton accelerator. The measurement has since been validated by the adjusted 2018 CODATA value of the proton RMS charge radius.
Nassim Haramein
Description
Nassim Haramein has spent more than 30 years researching and discovering connections in physics, mathematics, geometry, cosmology, quantum mechanics, biology and chemistry as well as anthropology and archeology.
These studies led Haramein to groundbreaking theories, published papers and patented inventions in unified physics, which are now gaining worldwide recognition and acceptance.
Haramein’s findings are based on a fundamental geometric quantization of spacetime, formalizing a unification between the quantum scale and cosmological-sized objects, including the universe itself. Haramein's seminal paper “Quantum Gravity and the Holographic Mass” was published in the peer-reviewed journal Physical Review & Research International in 2013. Utilizing a generalized holographic principle, the paper predicted a precise value of the charge radius of the proton which disagreed with the Standard Model by 4%. This prediction was later confirmed by a team of scientists at the Paul Scherrer Institute utilizing muons in a proton accelerator. The measurement has since been validated by the adjusted 2018 CODATA value of the proton RMS charge radius.
