Dynamics of Contracted Atoms, Molecules, etc.

In summary, the contraction in Lorentz Ether Theory affects the performance of atoms, molecules, and solids in a similar way as in Special Relativity. This can be seen in the example of a 6 foot man becoming 1mm when traveling at the speed of light. However, there are arguments that the physics may be affected when the atoms and molecules themselves are contracted, as seen in the case of tin-acid batteries. This raises questions about the actual length contraction in LET and its potential impact on the physics of objects.
  • #1
stglyde
275
0
In Lorentz Ether Theory, object really get contracted, for example, a 6 foot man would become mere 1mm when traveling near the speed of light. They say SR and LET can't be distinguished because the performance of contracted atoms, molecules, etc. would be the same. Meaning if you were mere 1mm.. you won't know because your ruler would be similarly affected.

Can anyone give any atomic, molecular or solid state arguments that a man of 6 foot contracted to 1mm would have some molecular or atomic process that get affected enough to destroy or ruin the physics?

Or do you also believe that if atoms, molecules were contracted 2000 times smaller, the physics would be the same??
 
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  • #2
http://physics.aps.org/story/v27/st2

"This contraction, which is most pronounced in the spherically-symmetric s-orbitals of heavy elements, explains why gold has a yellowish hue and why mercury is liquid at room temperature"

"But tin’s nucleus has only 50 protons, compared with lead’s 82, so the relativistic contraction of tin’s outermost s-orbital is much less. Additional simulations showed that a hypothetical tin-acid battery would produce insufficient voltage to be practical, because tin dioxide does not attract electrons strongly enough. Tin’s comparatively loose s-orbital does not provide as deep an energy well for electrons as lead does, the team found. In the past, researchers only had a qualitative understanding of why tin-acid batteries never worked out."
 
  • #3
atyy said:
http://physics.aps.org/story/v27/st2

"This contraction, which is most pronounced in the spherically-symmetric s-orbitals of heavy elements, explains why gold has a yellowish hue and why mercury is liquid at room temperature"

"But tin’s nucleus has only 50 protons, compared with lead’s 82, so the relativistic contraction of tin’s outermost s-orbital is much less. Additional simulations showed that a hypothetical tin-acid battery would produce insufficient voltage to be practical, because tin dioxide does not attract electrons strongly enough. Tin’s comparatively loose s-orbital does not provide as deep an energy well for electrons as lead does, the team found. In the past, researchers only had a qualitative understanding of why tin-acid batteries never worked out."

What is the relevant of this to LET actual length contraction? Does this prove that when the atom is contracted 2000 times down in size. It would lose some features or some physics ruined?
 

1. What is the concept of dynamics in relation to contracted atoms and molecules?

The concept of dynamics in this context refers to the study of the motion and behavior of atoms and molecules that have been contracted, or compressed, in some way. This can include studying how they move, interact, or change under different conditions.

2. How is the dynamics of contracted atoms and molecules different from that of regular atoms and molecules?

The dynamics of contracted atoms and molecules can be different from regular atoms and molecules due to their altered size, shape, or composition. This can affect their physical properties and behavior, making them behave differently under certain conditions compared to their regular counterparts.

3. What are some techniques used to study the dynamics of contracted atoms and molecules?

Some common techniques used to study the dynamics of contracted atoms and molecules include spectroscopy, scattering experiments, and molecular simulations. These techniques allow scientists to observe and analyze the behavior and interactions of these contracted particles.

4. How does understanding the dynamics of contracted atoms and molecules contribute to scientific research?

Studying the dynamics of contracted atoms and molecules can provide valuable insights into the fundamental principles of matter and the behavior of different materials. This knowledge can be applied in various fields such as chemistry, materials science, and nanotechnology, leading to advancements in technology and innovation.

5. What are some practical applications of the dynamics of contracted atoms and molecules?

The dynamics of contracted atoms and molecules have various practical applications, such as in the development of new materials with specific properties, designing efficient drug delivery systems, and understanding the behavior of gases in outer space. This research also has implications in fields like renewable energy, environmental science, and medicine.

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