Exploring Physics Measurement: Stochastic Electrodynamics

It is related to the measurement data process.In summary, the conversation discusses the concept of spontaneous electromagnetic radiation and the connection to stochastic electrodynamics. The use of Fermi's Golden Rule in calculating transition rates is also mentioned.
  • #1
ziyuang
2
0
Hi, there.
I am not major in physics so maybe I lack some basic knowledge.
Imagine one have an ideal sensor, which can convert the emission to some kinds of signal (typically, voltage), then what process can describe the measure data? Is it related to http://en.wikipedia.org/wiki/Stochastic_electrodynamics" ?
 
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  • #2
Spontaneous electromagnetic radiation is a quantum process. Whereas stochastic electrodynamics is the effort to add some quantum concepts into classical electrodynamics without going full quantum, you could also use stochastic electrodynamics to describe spontaneous emission.
 
  • #3
Thanks for your hint. It seems to be something called http://en.wikipedia.org/wiki/Fermi%27s_golden_rule"
 
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  • #4
Fermi's Golden Rule can be used to calculate any transition rate, not just photon emission.
 
  • #5


Hello there,

I am familiar with the concept of stochastic electrodynamics. It is a theoretical framework that aims to explain the behavior of electromagnetic fields at the quantum level. It combines elements of classical electrodynamics and quantum mechanics to describe the statistical behavior of electromagnetic phenomena.

In regards to your question about the ideal sensor, the measurement data would likely be described using statistical distributions and equations within the framework of stochastic electrodynamics. This would take into account factors such as the uncertainty and randomness inherent in quantum systems.

While this theoretical framework is still being explored and developed, it has shown promise in providing a deeper understanding of the behavior of electromagnetic fields. I would suggest further research and study to gain a better understanding of stochastic electrodynamics and its applications in measurement and other areas of physics.
 

1. What is stochastic electrodynamics?

Stochastic electrodynamics is a theory that combines quantum mechanics and classical electrodynamics to explain the behavior of electromagnetic fields. It suggests that the electromagnetic field is made up of tiny particles called photons that move in a random, probabilistic manner.

2. How does stochastic electrodynamics differ from traditional physics theories?

Stochastic electrodynamics differs from traditional physics theories in that it takes into account the probabilistic nature of quantum mechanics, rather than assuming a deterministic universe. It also incorporates the concept of zero-point energy, which suggests that even in a vacuum, there is still energy present.

3. What are the practical applications of stochastic electrodynamics?

Stochastic electrodynamics has been used to explain phenomena such as the Casimir effect, which is the attraction between two uncharged plates due to the presence of quantum fluctuations in the vacuum. It has also been applied to the study of the behavior of photons in complex systems, such as biological cells.

4. Is stochastic electrodynamics widely accepted in the scientific community?

Stochastic electrodynamics is a relatively new theory and is still being studied and debated by scientists. While it has gained some support in the scientific community, it is not yet widely accepted as a mainstream theory.

5. How does stochastic electrodynamics relate to the concept of uncertainty in quantum mechanics?

Stochastic electrodynamics addresses the concept of uncertainty in quantum mechanics by suggesting that the probabilistic behavior of electromagnetic fields is due to the interactions of individual photons. It also proposes that the uncertainty in the position and momentum of particles is not inherent, but rather a result of our limited ability to measure these quantities precisely.

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