“The neutrino is a photon around Ferent electron”
Adrian Ferent
“The antineutrino is a photon around Ferent antielectron”
Adrian Ferent
“In the beta decay of a neutron, the two down quarks emit negative photons, the up quark emits a positive photon, not a virtual W− boson.”
Adrian Ferent
“One negative photon and a Ferent particle create an electron.
One negative photon and a positive photon create a photon that creates the antineutrino.
In the same time the neutron emits a Ferent electon and a Ferent antielectron”
Adrian Ferent
“The electron is a negative photon around Ferent electron”
Adrian Ferent
“The positron is a positive photon around Ferent antielectron”
Adrian Ferent
“Matter contains Ferent matter”
Adrian Ferent
“Antimatter contains Ferent antimatter”
Adrian Ferent
The Nobel Prize in Physics 2026 was awarded "for decisive contributions to the IceCube Neutrino Observatory and the discovery of high-energy neutrinos, but all Nobel Laureates, the greatest scientists do not know what the neutrino is.
On my Birthday I Discovered what the neutrino is.
You learned from the greatest scientists:
In nuclear physics the weak interaction, weak force is one of the four known fundamental interactions, with the others being electromagnetism, the strong interaction, and gravitation.
It is the mechanism of interaction between subatomic particles that is responsible for the radioactive beta decay of atoms: The weak interaction participates in nuclear fission and nuclear fusion. The theory describing its behaviour and effects is sometimes called quantum flavourdynamics or electroweak theory
The effective range of the weak force is limited to subatomic distances and is less than the diameter of a proton
The Standard Model of particle physics provides a uniform framework for understanding electromagnetic, weak, and strong interactions. An interaction occurs when two particles (typically, but not necessarily, half-integer spin fermions) exchange integer-spin, force-carrying bosons.
The fermions involved in such exchanges can be either elementary (electrons or quarks) or composite (protons or neutrons), although at the deepest levels, all weak interactions ultimately are between elementary particles.
The weak interaction is the only fundamental interaction that breaks parity symmetry.
Quarks make up composite particles like neutrons and protons.
The weak interaction is unique in that it allows quarks to swap their flavour for another.
The swapping of those properties is mediated by the force-carrier bosons.
During beta-minus decay, a down quark within a neutron is changed into an up quark, thus converting the neutron to a proton and resulting in the emission of an electron and an electron antineutrino.
Weak interaction is important in the fusion of hydrogen into helium in a star. This is because it can convert a proton (hydrogen) into a neutron that can fuse with another proton to form deuterium, which is important for the continuation of nuclear fusion to form helium. The accumulation of neutrons facilitates the buildup of heavy nuclei in a star
The weak interaction is unique in several respects:
It is the only interaction that can change the flavour of quarks and leptons change one type of quark into another.
It is the only interaction that violates P, or parity symmetry. It is also the only one that violates charge–parity (CP) symmetry.
Both the electrically charged and the electrically neutral interactions are mediated (propagated) by force carrier particles that have significant masses, an unusual feature which is explained in the Standard Model by the Higgs mechanism.
Decay processes like beta decay governed by the weak interaction can only be observed when processes involving faster decays via electromagnetic or strong interaction are not competing.
Due to their large mass, 90 GeV/c^2 these carrier particles, called the W are short-lived with a lifetime of under 10^(−24) seconds.
The weak interaction has a very short effective range around 0.01 to 0.1 fm.
At distances 0.001 fm, the weak interaction has an intensity of a similar magnitude to the electromagnetic force, but this starts to decrease exponentially with increasing distance.
In the beta decay of a neutron, a down quark within the neutron emits a virtual W− boson and is thereby converted into an up quark, converting the neutron into a proton.
Because of the limited energy involved in the process ( the mass difference between the down quark and the up quark), the virtual W− boson can only carry sufficient energy to produce an electron and an electron.
At the quark level, the process can be represented as:
d→ u + e− + ν
Beta decay of a neutron transforms it into a proton by the emission of an electron accompanied by an antineutrino.
Ferent Quantum Gravity (FQG)
Wrong theories:
Quantum Field Theory (QFT) and the Standard Model treat subatomic particles as localized excitations or ripples within continuous quantum fields that fill all of space
Fields do not fill the entire space, and not every type of fundamental particle (such as electrons or quarks) corresponds to a specific field of its own.
Dark matter is Ferent matter, located beyond the Planck Wall, between the Planck Wall and the Ferent Wall.
Ferent Quantum Gravity (FQG) and Ferent Quantum Evolution (FQE) are beyond AI
Ferent Matter is not Dark Matter:
Today all the Nobel Laureates, the greatest scientists, your professors… were not capable to explain Dark Matter, they talk about Transparent matter because they can not see Dark Matter, they talk about Baryonic matter, Non-baryonic matter like axions, they talk about cold, warm or hot Dark Matter, about Supersymmetric Particles as Dark Matter…but Not beyond the Planck Wall.
“The electron is a negative photon around Ferent electron”
Adrian Ferent
“The positron is a positive photon around Ferent antielectron”
Adrian Ferent
“The strong nuclear force is mediated by Ferent Photons and Photons, because gluons do not exist”
Adrian Ferent
Wrong theory:
In the beta decay of a neutron, a down quark within the neutron emits a virtual W− boson and is thereby converted into an up quark, converting the neutron into a proton.
“In the beta decay of a neutron, the two down quarks emit negative photons, the up quark emits a positive photon, not a virtual W− boson.”
Adrian Ferent
“One negative photon and a Ferent particle create an electron.
One negative photon and a positive photon create a photon that creates the antineutrino.
In the same time the neutron emits a Ferent electon and a Ferent antielectron”
Adrian Ferent
“The neutrino is a photon around Ferent electron”
Adrian Ferent
“The antineutrino is a photon around Ferent antielectron”
Adrian Ferent
“Matter contains Ferent matter”
Adrian Ferent
“Antimatter contains Ferent antimatter”
Adrian Ferent
830. I am the first who discovered that the neutrino is a photon around Ferent electron
831. I am the first who discovered that the antineutrino is a photon around Ferent antielectron
https://www.researchgate.net/publication/415518256_The_neutrino_is_a_photon_around_Ferent_electron
