On the huge hypothetical atom

In summary, the conversation discusses the quantization of electric fields from a point charge at a macroscopic distance of several centimeters. The speaker asks about the acceleration of a proton using this electric field and whether it is quantized in steps. They also inquire about an easy way to calculate the quantization of fields. The suggested starting point for further research is the "Hydrogen-like atom" page on Wikipedia.
  • #1
Sven Andersson
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Right, on the huge hypothetical atom I asked about before; what I'm really after is how the electric field from a point charge is quantized at a macroscopic distance of several centimeters? Let's say that you charge a metal electrode with C Coulombs of negative charge and then use that electric field to accelerate a proton, say five centimeters away. Let's say that the voltage is 10 kV or something like that. Now, how is the electric field quantized? Is acceleration of the proton in "steps" and of so, how large are the steps? Is there an easy way of calculating the quantization of fields and if so, how is that done?

S.A.
 
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  • #2
Sven Andersson said:
Right, on the huge hypothetical atom I asked about before; what I'm really after is how the electric field from a point charge is quantized at a macroscopic distance of several centimeters? Let's say that you charge a metal electrode with C Coulombs of negative charge and then use that electric field to accelerate a proton, say five centimeters away. Let's say that the voltage is 10 kV or something like that. Now, how is the electric field quantized? Is acceleration of the proton in "steps" and of so, how large are the steps? Is there an easy way of calculating the quantization of fields and if so, how is that done?

S.A.
You might start with "Hydrogen-like atom" in wikipedia.

Jim Graber
 

1. What is the concept of the "huge hypothetical atom"?

The huge hypothetical atom is a theoretical model used to explain the behavior of particles at the subatomic level. It is an imaginary atom that is much larger than a normal atom, allowing scientists to study and understand the interactions of particles on a larger scale.

2. How is the "huge hypothetical atom" different from a regular atom?

The huge hypothetical atom is different from a regular atom in size and composition. It is much larger and contains different types of particles, such as hypothetical particles like quarks and leptons, which do not exist in regular atoms.

3. What is the purpose of studying the "huge hypothetical atom"?

Studying the huge hypothetical atom allows scientists to better understand the fundamental principles and laws that govern the behavior of particles at the subatomic level. It also helps to develop and test new theories and models that can potentially lead to breakthroughs in our understanding of the universe.

4. Is there any evidence to support the existence of the "huge hypothetical atom"?

No, there is currently no evidence to support the existence of the huge hypothetical atom. It is purely a theoretical concept used as a tool for scientific research and understanding.

5. How does the "huge hypothetical atom" relate to other theories in physics?

The huge hypothetical atom is closely related to other theories in physics, such as quantum mechanics and the standard model of particle physics. It helps to bridge the gap between these theories and explain the behavior of particles in a larger context.

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