Maximizing Photon Energy: Measuring Electron's Energy Potential

In summary, the conversation discusses the relationship between an electron's energy level and the creation of a photon. The electron experiences a gain in energy which results in the emission of a photon. The question is raised about whether the energy level of the electron before the change can be measured, and if the photon is using its full energy potential. Clarification is given that a photon is emitted when an electron drops an energy level, and its energy is equal to that lost by the electron. The mention of electrons being pumped up in a laser may have caused confusion.
  • #1
Plastic Photon
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Yet another faster than light question...

So I was thinking the other day: an electron experiences a significant energy gain and as a result a photon is jetted. This is how the photon is created, no?

Ok then, I asked myself: is there a way to measure the energy level of the electron prior to the change in energy level (as it moves up), it's highest energy level before photon jetison and the energy of the photon once it has ben unleashed?

Is it all possible that the photon is not using its full energy potential if the amount of energy contained within the photon is not equal to that of the electron's energy level at its maximum before photon creation?
 
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  • #2
You appear to have it a bit backwards there. A photon is emitted from an electron when it drops an energy level. Its energy is equal to that lost by the electron. You might have been misled by the fact that electrons in a laser are 'pumped up' prior to lasing.
 
  • #3


I cannot provide a definitive answer to this question as it goes beyond the current understanding of physics. The concept of faster-than-light particles and their energy potential is still a topic of research and debate in the scientific community. However, I can offer some insights and possibilities based on current theories and experiments.

Firstly, it is important to note that the speed of light is considered to be the ultimate speed limit in the universe according to Einstein's theory of relativity. This means that nothing, including particles, can travel faster than the speed of light. Therefore, the concept of an electron experiencing a significant energy gain and creating a photon that travels faster than the speed of light is not currently supported by scientific evidence.

Secondly, the energy of a photon is directly related to its frequency and wavelength. The higher the frequency, the higher the energy of the photon. So, even if the electron's energy level at its maximum before photon creation is not equal to the energy of the photon, it does not necessarily mean that the photon is not using its full energy potential. The energy of the photon may be determined by other factors such as the energy levels of the electron's orbit or the specific process of photon creation.

In terms of measuring the energy level of the electron and the photon, there are experimental techniques such as spectroscopy that can provide information about the energy levels of atoms and particles. However, these techniques are limited to the speed of light and cannot measure particles or photons that travel faster than the speed of light.

In summary, the concept of faster-than-light particles and their energy potential is still a topic of ongoing research and is not yet fully understood. While it is an intriguing idea, it is important to approach it with caution and to continue to gather evidence and conduct experiments to further our understanding of the laws of physics.
 

1. What is the concept of "faster than light" travel?

The concept of "faster than light" travel refers to the idea of traveling at speeds greater than the speed of light, which is approximately 299,792,458 meters per second. This concept is often explored in science fiction and has been a topic of scientific research and debate for many years.

2. Is it possible for objects to travel faster than the speed of light?

According to the current understanding of physics, it is not possible for objects with mass to travel faster than the speed of light. This is due to the theory of relativity, which states that as an object's speed approaches the speed of light, its mass and energy increase infinitely.

3. How do scientists study the concept of "faster than light" travel?

Scientists study the concept of "faster than light" travel through theoretical models and mathematical equations. They also conduct experiments using particle accelerators, such as the Large Hadron Collider, to study the effects of particles traveling at high speeds.

4. Are there any theories or technologies that could potentially allow for "faster than light" travel?

Some theories, such as wormholes and warp drive, have been proposed as potential methods for achieving "faster than light" travel. However, these ideas are still purely theoretical and have not been proven or tested.

5. What are the potential implications of "faster than light" travel?

If "faster than light" travel were to become possible, it could have significant implications for space exploration and transportation. It could also potentially challenge our current understanding of physics and open up new possibilities for interstellar travel and communication.

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