Ionization and Acceleration

1. Ionization: The powerful radio waves can strip away electrons from atoms or molecules, creating ions and free electrons.

2. Acceleration: The radio waves can accelerate charged particles, such as electrons or ions, to high speeds, potentially creating a beam of energetic particles.

Heating and Plasma Formation

1. Heating: The radio waves can transfer energy to the charged particles, causing them to heat up.

2. Plasma formation: If the energy transfer is sufficient, it can create a plasma, a state of matter characterized by the presence of ions and free electrons.

Dear Zakir Ali,

Thank you very much for your valuable response. Indeed, I believe that radio waves played a vital role right from the beginning of the Big Bang.

But I have another question for you: what can be done with plasma? Can we bring charges together by forcing them very close to each other in a plasma state?

this happens every day in charged particle accelerators.first effect:emission of synchrotron light in deflected and or bremsstrahllung in acceleration/deceleration

Dear Fritz Caspers,

Thanks a lot.

Jamil Kooli bringing charges together in a plasma state is possible, but it requires careful control of the plasma's properties and overcoming the challenges associated with charge separation and recombination rates.

Jamil Kooli In a plasma state, it's indeed possible to bring charges together, but it's not a straightforward process.

Plasma State

In a plasma, ions and free electrons coexist, creating a conductive, ionized gas. The plasma state is characterized by:

1. High temperatures: Typically above 10,000 Kelvin (18,032°F).

2. High-energy particles: Ions and electrons are highly energetic, allowing them to overcome their mutual repulsion.

Bringing Charges Together

When you force charges together in a plasma state, several factors come into play:

1. Coulomb attraction: Opposite charges (positive ions and negative electrons) attract each other, facilitating recombination.

2. Debye shielding: The plasma's electrons and ions rearrange to shield the charges from each other, reducing the attractive force.

3. Plasma oscillations: The plasma's electrons and ions oscillate at specific frequencies, influencing the recombination process.

Challenges

While it's possible to bring charges together in a plasma state, there are challenges to overcome:

1. Energy requirements: Creating and sustaining a plasma requires significant energy input.

2. Charge separation: The plasma's charges tend to separate, making it difficult to maintain a stable, neutral plasma.

3. Recombination rates: The rates at which charges recombine can be slow, limiting the efficiency of the process.

Dear Zakir Ali,

Thank you very much for this detailed explanation. Indeed, in my theory, charges are the ultimate constituents of matter. In my opinion, at the very beginning of the big bang, there was the formation of "primitive" particles constituting only charges. Then these primitive particles gathered, in one way or another, to form quantum black holes in slightly more evolved forms until arriving at the formation of quantum black holes like the proton-type black hole or the neutron-type black hole etc. In fact, what is done at CERN is exactly the opposite of what happened at the beginning of the first moments of the big bang. In these first moments, the components assemble, on the other hand, at CERN the components disassemble! Strange, isn't it! The action of radio waves at first, among other phenomena of course, as well as probably (in my opinion) the entry into action of the Higgs field to facilitate the formation of quantum black holes and the creation of quantum gravity to maintain the black holes.

In my opinion the bosons including the Higgs bosons, quarks etc. are only precursors of the formation of matter. they are like the chemical catalyst that helps to initiate the reaction but we do not find them in the final product!!