Fermilab relativity energy problem

In summary, the conversation discusses the difference in available energy for producing heavy particles between fixed target experiments and head-on collisions in colliders. It then poses a homework question about calculating the energy of the most massive single particle that can be produced in both scenarios. The relevant equations and attempt at a solution provided were insufficient, and the person asking the question is unsure of their answer.
  • #1
erisedk
374
7

Homework Statement


This is why we build them as colliders now:

Some years ago Fermilab used to extract its high energy proton beam for use by "fixed target" experiments situated at the ends of external beamlines a mile north of the Tevatron ring. The energy available for the production of (unstable) heavy particles in collisions between a high energy proton and a stationary proton is very different from that available when two beams with the full Tevatron energy collide head on.

Calculate the energy of the most massive single particle that can be produced in a collision of a proton with total energy 1000 GeV with a stationary proton with total energy mc^2 = 0.93827 GeV. Also calculate the energy of the most massive particle that can be produced in a head on collison of two 1000GeV beams. (It's fine to use the approximation β = 1 when appropriate).

Homework Equations


Relativistic energy and momentum conservation

The Attempt at a Solution


Why do I feel like I should just be adding the two terms to get total energy of final particle in both cases? Answer is obviously wrong.
 
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  • #2
Your relevant equations and attempt at a solution show little detail. Perhaps if you explained what you did and why it is obviously wrong, someone would be able to divine why you feel the way you do.
 

Related to Fermilab relativity energy problem

What is the Fermilab relativity energy problem?

The Fermilab relativity energy problem is a theoretical concept in particle physics that addresses the issue of how particles with different energies interact with each other. It is based on Einstein's theory of relativity, which states that energy and mass are equivalent and can be converted into each other. This creates a problem when trying to reconcile the behavior of high-energy particles with the laws of physics that govern low-energy particles.

What are the implications of the Fermilab relativity energy problem?

The implications of the Fermilab relativity energy problem are significant for our understanding of the fundamental laws of physics. It challenges our current understanding of energy, mass, and their interactions, and may require the development of new theories or modifications to existing ones.

How is the Fermilab relativity energy problem being studied?

Scientists at Fermilab and other research institutions are conducting experiments and simulations to better understand the behavior of high-energy particles and their interactions. This includes the use of powerful particle accelerators and detectors to study the properties and behavior of particles at different energy levels.

What are some proposed solutions to the Fermilab relativity energy problem?

One proposed solution is the development of a new theory, such as quantum gravity, that can better explain the behavior of high-energy particles. Another solution is to modify existing theories, such as general relativity, to better account for the effects of high-energy particles.

Why is the Fermilab relativity energy problem important?

The Fermilab relativity energy problem is important because it highlights the limits of our current understanding of the laws of physics. By studying and attempting to solve this problem, scientists may uncover new insights and discoveries that could have major implications for our understanding of the universe.

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