Polarized Molecule Between Charged plates

AI Thread Summary
A polarized molecule like NH3 or H2O placed between two oppositely charged plates experiences a uniform electric field that influences its orientation and position. The electric field exerts forces on the dipoles of the molecules, potentially trapping them between the plates due to the alignment of their dipoles with the field. The discussion emphasizes that the uniformity of the electric field is crucial for this trapping effect. The interaction between the polar molecules and the electric field can lead to stabilization within the charged plates. Understanding these dynamics is essential for applications in fields like electrochemistry and molecular physics.
Biodelta
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If a polarised molecule, e.g NH3 or H20 (Vapour molecule) or Butane is between two plates, of opposite charge,
would the charges serve to trap the molecule between the plates?
 
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Biodelta said:
If a polarised molecule, e.g NH3 or H20 (Vapour molecule) or Butane is between two plates, of opposite charge,
would the charges serve to trap the molecule between the plates?
Thread difficulty level changed from "A" (graduate school) to "I" (undergraduate).

What do you think will happen? The field strength between charged plates is uniform / flat, at least away from the very edges of the plate. What does a uniform E-field do to a polar molecule?
 
Yes, this is precisely the question I have asked.
 
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