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PRodQuanta
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What do you make of this, now that the theory has some math... Just seeing what you think.
Paden Roder
http://www.geocities.com/natureoflight/natureoflight
That would be a case AGAINST electrons, not FOR photons (if it were an accurate description of what is going on, which it is not). A theory must be able to stand on its own.Originally posted by McQueen
The case for photons as the conductors of electrical energy is as follows :- The drift velocity of electrons in a conductor with a 100V and 1 amp is .4mm which is approx 300 billion times less than c. The distance between electrons in a conductor is like having a circle with a 6km radius , the flow of electrons is like a billiard ball placed at the centre ,trying to hit a billiard ball placed on the perimeter of this circle. Is it possible ?
Sounds like an aether theory to me."Aumic" wave theory or New Field theory holds that the universe is saturated with such virtual photons [Note ]which are exactly similar to real photons in structure but whose energy is minimal , these virtual photons are moving in random directions , however as soon as a real photon appears they align themselves (rather in the manner of electrons in a wire conducting a current ) in the direction of propagation of the photon forming a line whose ends rest on infinity.
A proton is a subatomic particle that has a positive charge and is found in the nucleus of an atom. It has a mass of approximately 1 atomic mass unit and is one of the building blocks of matter.
Protons have a positive charge, while electrons have a negative charge. Protons are much larger and heavier than electrons, and they are found in the nucleus of an atom while electrons orbit around the nucleus.
Protons are responsible for the stability and identity of an atom. The number of protons in an atom determines its atomic number, which determines its chemical properties. Protons also play a crucial role in chemical reactions and bonding between atoms.
Protons are considered to be fundamental particles, meaning they cannot be created or destroyed. However, protons can be converted into other types of particles through processes such as radioactive decay or particle collisions.
Protons can be studied through a variety of methods, including particle accelerators, nuclear reactors, and spectroscopy. Researchers also use mathematical models and computer simulations to understand the properties and behavior of protons.