Self-annihilating photons and Z bosons?

In summary, we discussed the concept of annihilation and how it applies to particles such as Z bosons and photons. While originally it meant the transformation into a pair of photons, it can also refer to other particle interactions. We also mentioned the possibility of Z bosons interacting with each other through vector boson fusion and the search for the Higgs boson through Z-Z or W-W scattering. There is also ongoing research on the photonic explanation of static electromagnetic waves and the interaction of two destructive electromagnetic waves.
  • #1
physicsvalk
35
0
(If my question seems irrational, it's ok - I'm an undergrad!)

So I was reading up on the standard model and read that Z bosons are their own antiparticles. Does this mean that when two Z bosons are in physical contact, they annihilate? I ask this for photons too since I read this on the "Photon" wiki article, but I'd like some more assurance.
 
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  • #2
Yes, but we need to discuss what the word "annihilate" means. Originally it meant "turns into a pair of photons", but it can be used more generally. In that sense an electron and positron can annihilate into a neutrino-antineutrino pair. Or given sufficient energy, a neutrino-antineutrino pair can annihilate back into positron and electron. When a proton and antiproton "annihilate", multiple particles will be the typical outcome.

Two photons can interact, with the aid of a closed electron loop, to form another pair of photons. This is a very small effect that has been predicted but never observed.

Z0's can interact with each other, but it is called vector boson fusion. They may combine to form a Higgs boson, which then decays into something else. One way that has been proposed to search for the Higgs boson is to look for a resonance in Z-Z or W-W scattering.
 
  • #3
I am undergrad and it was my question too for some month( intraction of two photons),
for example what is the photonic explanation of static electromagnetic waves?
or two destroyer electromagnetic wave?
 

1. What are self-annihilating photons and Z bosons?

Self-annihilating photons and Z bosons are particles that have the ability to destroy themselves upon contact with their antiparticles. This process is known as annihilation and is a fundamental principle in particle physics.

2. How are self-annihilating photons and Z bosons studied?

Scientists study these particles by using powerful particle accelerators to create collisions between particles and their antiparticles. The resulting energy and debris from these collisions can provide important clues about the properties and behavior of self-annihilating particles.

3. What is the significance of self-annihilating photons and Z bosons?

These particles play a crucial role in understanding the origin and evolution of the universe. The annihilation process is believed to have occurred in the early stages of the universe, and the study of self-annihilating particles can provide insights into the nature of dark matter and the Big Bang.

4. Can self-annihilating photons and Z bosons be harnessed for practical applications?

While the study of these particles has led to advances in technology, such as medical imaging and cancer treatment, their ability to self-annihilate is not currently used for practical applications. However, further research may lead to new discoveries and potential practical uses in the future.

5. Are there any potential risks associated with self-annihilating photons and Z bosons?

As with any scientific research, there are always potential risks and uncertainties. However, the study of self-annihilating particles is conducted under strict safety protocols and regulations to ensure the well-being of both researchers and the general public.

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