What do the terms in Heisenberg's matrices represent?

In summary, the conversation discusses the meaning of the terms in Heisenberg's matrices and the difficulty in understanding them. The diagonal elements represent expectation values and the non-diagonal elements do not have a physical interpretation. The conversation also mentions the complexity of Heisenberg's work and how it can be difficult to understand.
  • #1
werner heisenberg
I was just thinking about what does every one of the terms in Heisenberg's matrices stands for so I decied to post a new thread in physicsforums since I am sure I will obtain an answer before long. Thanks an try to explain it in plain languaje (if possible) because I am not an expert
 
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  • #2
Well I see it is not an easy question to answer... Thanks anyway.
 
  • #3
I'm not sure if this is what you're asking, but..
The diagonal elements of some matrix A corresponding to an observable in some orthormal basis: [itex]A_{ii}=\langle \varphi_i|A|\varphi_i \rangle[/itex] resemble expectation values. It is the expectation value [itex]\langle A \rangle[/itex] of A for a system in the state [itex]|\varphi_i \rangle[/itex]. I don't know of any physical interpretation of the non-diagonal elements.
 
  • #4
uh.. shouldn't you know this stuff pretty well Werner?
 
  • #5
Yep I should but you see... At first Werner seems rather easy and amazing with its uncertainty principle but when reading its life (David Cassidy Uncertainty, the life and science of werner Heisenberg) you realize this is not true, he published a great deal of papers on a great deal of fields and he is often impossible to understand
 

FAQ: What do the terms in Heisenberg's matrices represent?

What is the significance of Heisenberg matrices in science?

Heisenberg matrices, also known as Heisenberg operators, are mathematical representations of quantum mechanical operators. They play a crucial role in understanding the behavior of quantum systems and are fundamental to the study of quantum mechanics.

Who is Heisenberg and how did he contribute to the development of these matrices?

Werner Heisenberg was a German physicist who, along with Max Born and Pascual Jordan, developed the mathematical formalism of quantum mechanics in the 1920s. Heisenberg's uncertainty principle, which states that the more precisely the position of a particle is known, the less precisely its momentum can be known, was a key concept in the development of Heisenberg matrices.

How are Heisenberg matrices related to the uncertainty principle?

Heisenberg matrices are closely related to the uncertainty principle because they represent the position and momentum of a particle as non-commuting operators. This means that the more precisely one of these operators is known, the less precisely the other can be known, in accordance with the uncertainty principle.

Can Heisenberg matrices be used to solve practical problems in science?

Yes, Heisenberg matrices are widely used in quantum mechanics to solve practical problems and make predictions about the behavior of quantum systems. They are also used in fields such as quantum computing and quantum cryptography.

Are there any limitations to the use of Heisenberg matrices?

Like any mathematical model, Heisenberg matrices have limitations and may not accurately represent all aspects of a quantum system. Additionally, they only apply to non-relativistic systems and do not take into account the effects of gravity.

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