Nuclear Modification of Molten Metals via Electromagnetic Fields

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Discussion Overview

The discussion centers on the influence of electromagnetic fields on the electron configurations of molten metals and the potential for nuclear modification. Participants explore theoretical implications, the nature of electron clouds, and the feasibility of nuclear transmutation through electromagnetic manipulation.

Discussion Character

  • Exploratory
  • Debate/contested
  • Technical explanation

Main Points Raised

  • Some participants question whether electromagnetic fields can influence electrons orbiting around a nucleus and if they can reshape the electron cloud into a specific configuration.
  • There is a proposal that manipulating the electron cloud could leave the nucleus unshielded, potentially allowing for low-energy nuclear transmutations.
  • Others argue that while electromagnetic fields can affect electrons, they are unlikely to achieve nuclear transmutation without high-energy interactions, such as gamma radiation.
  • One participant mentions the Zeeman effect as a relevant phenomenon but later corrects themselves to refer to the Stark effect, which involves electric fields.
  • Concerns are raised about the strong nuclear force, which is described as a significant barrier to modifying the nucleus, regardless of the electron cloud's configuration.
  • Another participant discusses weak interactions in nuclear decay, suggesting that electron distribution can influence decay rates, though its relevance to the original question is questioned.
  • One participant dismisses the idea of transforming silver into palladium through electromagnetic means, likening it to alchemy.

Areas of Agreement / Disagreement

Participants express a range of views, with some supporting the idea of electromagnetic influence on electron clouds while others firmly reject the possibility of nuclear modification through this method. The discussion remains unresolved, with competing perspectives on the feasibility of the proposed concepts.

Contextual Notes

Participants note the limitations of their arguments, including the need for high-energy interactions for nuclear transmutation and the complexity of electron configurations. There are also references to specific phenomena like the Stark and Zeeman effects, which may not be fully understood in the context of the discussion.

compsciguy24
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Hi all, I have a few odd questions.

1. Can electromagnetic fields influence electrons orbiting around a nucleus?

2. Would it be possible to squash an electron "cloud" into a ring or saucer shape by the application of magnetic fields (think of Saturn and its rings, Saturn = nucleus & rings = electrons)?

3. If this is possible, what would happen to the nucleus? Would the nucleus be open for modification? Would the nucleus start to fly apart?

I ask these questions because I want to confirm or deny something I heard a friend mention. He said if certain metals are kept molten while a strong electromagnetic field is applied the electron cloud will be squashed into a saucer configuration and the nucleus will be left open to modification. He gave an example: if silver is heated to flux in an induction furnace for a few hours it'll drop to palladium (difference of 1.5 atomic mass units).

This seems highly questionable to me, but he was so vehement about this particular notion. I'm not a physicist, but rather a computer scientist. So I'm not sure if he was pulling my leg or not. A detailed explanation would be great!

EDIT: I had trouble deciding which section I should post this, but hopefully I posted it in the right section! Please excuse me if I made a blunder.
 
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Photons are electromagnetic particles, and a strong enough photon would ionize an atom.

If one means using electrostatic and magnetic fields, then there would be some influence on electrons in metals (but not squashing atoms), but one is not going to achieve a nuclear transmutation with electromagetic fields unless it is a particular gamma-energy in which one might get a neutron to be ejected (photo-neutron), but that requires MeV levels of energy.

To transform silver (Ag) to palladium (Pd), one would need to remove a proton, which could be done with an (n,p) reaction, but one is more likely to have the neutron absorbed by the Ag which ultimately decays by beta-decay to Cd.

An alloy of Ag-In-Cd is used in control rods in pressurized water nuclear reactors (PWRs).
 
Astronuc said:
If one means using electrostatic and magnetic fields, then there would be some influence on electrons in metals (but not squashing atoms) ...
I understand that the atom itself wouldn't be squashed. I don't think that's what he meant. I believe he was referring to restricting the otherwise chaotically orbiting electrons in the electron cloud to a pancake or saucer shape. This would leave the nucleus in a somewhat unshielded state. I don't even know if it's possible to manipulate electron orbitals in this particular fashion.

I used the Saturn analogy to demonstrate what an atom would look like in this configuration. The rings of Saturn would represent the orbiting electrons in their restricted pancake style orbitals, and the nucleus would represent Saturn itself.

Astronuc said:
... but one is not going to achieve a nuclear transmutation with electromagetic fields unless it is a particular gamma-energy in which one might get a neutron to be ejected (photo-neutron), but that requires MeV levels of energy.
Yeah, supposedly the electromagnetic fields are only used to manipulate the electron cloud. In this modified state the nucleus is open at the "poles" and then one is able to do low energy nuclear transmutations without having to deal with the electronic shield that would normally be present.
 
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Of course electrical fields will affect the electrons. That'd be the Zeeman effect.

It's not going to do anything at all to the nucleus. The strong nuclear force is strong.

Besides which, it'd be far simpler to just ionize the thing and remove the electrons altogether.
 
Okay, so even if it were possible to manipulate the electron cloud in this particular fashion with electromagnetic fields the nucleus would still be pretty much unbreakable/unmodifiable due to the strong nuclear force?
 
Yes.
Consider that protons repel each other already due to charge; the same electrical force you want to use here.
In a nucleus, the protons will be separated by about a femtometer.

The Coulombic force that the strong nuclear interaction is overcoming, is therefore on the order of (using Coulomb's law).. I get 230 Newtons. That's 52 pounds of force - on something that weighs less than 4E-27 pounds!

Oh and my last post was wrong; Stark Effect not the Zeeman effect. The latter is magnetic fields, the former is electrical fields.
 
There are three types of weak interaction decay in nuclear radioactive decay; beta decay of protons (positron emission), beta decay of neutrons (electron emission) and proton K-capture (where the proton absorbs an atomic electron from the K shell to form a neutron plus neutrino). Beryllium-7 is a typical K-capture decay with a half life of about 53 days. Experimenters believe that they have been able to change the half life slightly by putting the beryllium-7 in a crystal structure, which modifies the electron distribution.
 
Causing one element to change into another by putting it in a furnace is called "alchemy", and it doesn't work.

I'm not certain how Bob S's comments connect to the OPs question, but one cannot turn silver into palladium with electricity
 
compsciguy24 said:
Hi all, I have a few odd questions.

1. Can electromagnetic fields influence electrons orbiting around a nucleus?

2. Would it be possible to squash an electron "cloud" into a ring or saucer shape by the application of magnetic fields (think of Saturn and its rings, Saturn = nucleus & rings = electrons)?

My comments on beryllium 7 (above) is an example that the electron configuration can be modified enough to have a measurable effect on the rate that nuclear protons capture atomic electrons.
 

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