High Energy Electron Greetings: Creation of Extra Particles?

In summary, when a high energy electron hits a target material, four particles are created: three electrons, a positron, and a cation. The extra particles are not created out of nothing, but rather through the energy of the incoming electron and through conservation of charge and other quantities.
  • #1
Mizies
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greetings..

i have 1 question:
When a very high energy electron hits a target material, four particles emerge from the target, that is three electrons and a positron, instead of just two electrons, the incident and ejected electrons. It seems that the two extra particles are created out of nothing. Do you agree with this statement?
 
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  • #2
Mizies said:
greetings..
When a very high energy electron hits a target material, four particles emerge from the target, that is three electrons and a positron, instead of just two electrons, the incident and ejected electrons. It seems that the two extra particles are created out of nothing. Do you agree with this statement?

No. They are created, via Einstein's famous ##E=mc^2##, from the energy of the incoming electron.
 
  • #3
Mizies said:
i have 1 question:
When a very high energy electron hits a target material, four particles emerge from the target, that is three electrons and a positron, instead of just two electrons, the incident and ejected electrons. It seems that the two extra particles are created out of nothing. Do you agree with this statement?
I would say 5 particles emerge. 3 electrons, a positron, and a cation. The cation is important because it is required for conservation of charge. The net charge before the collision is -1 and the net charge afterwards is also -1. All other quantities are also conserved.
 
  • #4
Mizies said:
It seems that the two extra particles are created out of nothing. Do you agree with this statement?

The description of what happens is correct. "Created out of nothing" is just a set of words. I do not think there is any additional meaning here, just opportunities for confusion.
 
  • #5


I cannot agree with the statement that the two extra particles are created out of nothing. The creation of particles is governed by the laws of physics and energy conservation. In this case, the high energy electron has enough energy to create a positron and two additional electrons through a process called pair production. This process is well understood and has been observed in various experiments. Therefore, the appearance of these extra particles is not a creation out of nothing, but rather a result of the interaction between the high energy electron and the target material.
 

FAQ: High Energy Electron Greetings: Creation of Extra Particles?

What is "High Energy Electron Greetings"?

"High Energy Electron Greetings" refers to the process of using high energy electrons to create extra particles in a controlled environment. This is often done in particle accelerators or colliders, where particles are accelerated to incredibly high speeds and collide with each other, resulting in the creation of new particles.

Why do scientists study "High Energy Electron Greetings"?

Scientists study "High Energy Electron Greetings" in order to better understand the fundamental building blocks of our universe. By creating and studying these extra particles, we can gain insight into the nature of matter and energy, and potentially uncover new laws of physics.

What types of particles are created through "High Energy Electron Greetings"?

The types of particles created through "High Energy Electron Greetings" can vary, but they often include exotic particles such as quarks, gluons, and Higgs bosons. These particles are not commonly found in our everyday world, but they play crucial roles in the structure of matter and the forces that govern it.

How do scientists control the creation of extra particles through "High Energy Electron Greetings"?

Scientists use advanced technologies and techniques to control the creation of extra particles through "High Energy Electron Greetings". This may include manipulating the energy and trajectory of the colliding particles, as well as carefully monitoring and analyzing the resulting particle interactions.

What are the practical applications of studying "High Energy Electron Greetings"?

Studying "High Energy Electron Greetings" has many practical applications, such as in medical imaging and cancer treatment, where high energy particles are used to target and destroy cancer cells. It also has implications for developing new technologies and materials, as well as understanding the origins and evolution of the universe.

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