- #1
taylaron
Gold Member
- 397
- 1
Greetings.
I want to experiment with the effects of macroscopic ionized solids.
But first, let's have a little 'thought experiment'!
If I have say, a gram of elemental copper, surrounded by ultra-pure water and it's put into a device which is capable of filling all of the valence electrons in the copper atoms. The ultra-pure water would act as an electric insulator, preventing electrons from leaving the copper mass. The copper would be kept in the center of the water by magnetic levitation. Given the excess of electrons in the copper, it will have a very, very intense electric field.
In this situation, is there a theoretical limit to the number of electrons one can inject into this mass of copper (after filling all the valence shells)? With sufficient water, the electrons shouldn't be able to leave, right? The copper would be very chemically unstable, but the water will prevent the electrons from migrating outwards, correct?
Are there benefits to using different materials? Conductive or not? More or less valence shells? Will the electrons eventually creep out of the ultra-pure water environment? What are the big problems with this concept? Will the water actually react with the unstable copper?
Thanks,
-Tay
I want to experiment with the effects of macroscopic ionized solids.
But first, let's have a little 'thought experiment'!
If I have say, a gram of elemental copper, surrounded by ultra-pure water and it's put into a device which is capable of filling all of the valence electrons in the copper atoms. The ultra-pure water would act as an electric insulator, preventing electrons from leaving the copper mass. The copper would be kept in the center of the water by magnetic levitation. Given the excess of electrons in the copper, it will have a very, very intense electric field.
In this situation, is there a theoretical limit to the number of electrons one can inject into this mass of copper (after filling all the valence shells)? With sufficient water, the electrons shouldn't be able to leave, right? The copper would be very chemically unstable, but the water will prevent the electrons from migrating outwards, correct?
Are there benefits to using different materials? Conductive or not? More or less valence shells? Will the electrons eventually creep out of the ultra-pure water environment? What are the big problems with this concept? Will the water actually react with the unstable copper?
Thanks,
-Tay