Quanta of the other three forces

In summary, a photon is the smallest quanta of electromagnetic interaction, which is a force responsible for interactions between charged particles. Other forces also have their own quanta, and quantum phenomena can be exhibited by all particles. EM interaction is also an energy field and the conversion of photons to other forms of energy is possible, but not always efficient.
  • #1
San K
911
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a photon is the smallest quanta of electromagnetic (em) interaction

is em an energy field? or is it is a force?

assuming its a force:

Is quantum phenomena (such as single particle interference, quantum entanglement) exhibited by the quanta for the remaining three forces.

(i.e: strong interaction (quarks, gluons), weak interaction and gravity (graviton))

Note: I am aware of one, i.e. weak interaction (in radioactive decay) there is quantum probabilistic phenomena at play.

assuming its an energy field:

would other energy forms such as heat, kinetic energy also have quanta of energy?
is the em/photon convertible to other forms of energy such as heat etc?

on a separate note:

when a electron jumps down an orbit around the nucleus its emits a photon.

thus a photon is the energy difference between the two orbits...it must be convertible to other energy forms...say heat etc...
 
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I can confirm that electromagnetic (EM) interaction is indeed a force. It is one of the four fundamental forces in nature, along with the strong and weak nuclear forces, and gravity. The EM force is responsible for interactions between charged particles, such as electrons, and is mediated by photons.

Regarding your question about quantum phenomena and the other three forces, it is important to note that all four forces have their own specific quanta or particles that mediate their interactions. For example, the strong nuclear force is mediated by particles called gluons, while the weak nuclear force is mediated by particles called W and Z bosons. Gravity is thought to be mediated by a particle called the graviton, although it has not yet been experimentally confirmed.

Quantum phenomena, such as single particle interference and quantum entanglement, are exhibited by all particles, including those that mediate the other three forces. However, the specific mechanisms and behaviors may differ for each force.

Now, to address your question about EM being an energy field. EM interaction is indeed an energy field, as it involves the exchange of energy between charged particles through the emission and absorption of photons. Other forms of energy, such as heat and kinetic energy, can also be quantized, but their quanta may be different from that of the photon.

As for the conversion of EM energy to other forms, it is possible for photons to be converted to other forms of energy, such as heat, through processes like absorption and emission by particles. However, this conversion is not always efficient and depends on various factors, such as the properties of the particles involved.

Finally, to address your note about the emission of photons by electrons when they jump between orbits, yes, the energy of the photon is indeed equal to the energy difference between the two orbits. This energy can be converted to other forms, as mentioned before, but the conversion may not always be complete.

I hope this answers your questions and provides a better understanding of the role of photons and EM interaction in nature.
 

1. What are the other three forces?

The other three forces are the strong nuclear force, the weak nuclear force, and the electromagnetic force. These forces act on the subatomic level to hold particles together and govern their interactions.

2. How do these forces differ from gravity?

Unlike gravity, which is a long-range force and acts on all objects with mass, the other three forces have a limited range and only act on particles within the atomic nucleus. They also have different strength and properties.

3. What are the quanta of these forces?

The quanta of the strong and weak nuclear forces are known as gluons and W and Z bosons, respectively. The quanta of the electromagnetic force are photons. These particles are exchanged between particles to mediate the forces.

4. How do these forces interact with each other?

The strong and weak nuclear forces are responsible for holding the atomic nucleus together and are stronger than the electromagnetic force. However, at high enough energies, these three forces can unify and behave as a single force, known as the Grand Unified Theory.

5. What is the significance of understanding the quanta of these forces?

Studying the quanta of these forces can help us understand the fundamental nature of matter and the universe. It also has practical applications, such as in nuclear energy and medical imaging technology.

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