Why when a chemical species is stablized by resonance, its energy

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When a chemical species is stabilized by resonance, its energy level decreases due to the delocalization of electrons. This delocalization allows for a more even distribution of charge, which reduces electrostatic repulsion among like charges and enhances the interaction between opposite charges, such as nuclei and electrons. This stabilization occurs independently of any environmental interactions, reinforcing the concept that resonance leads to lower energy states in chemical species.
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Why when a chemical species is stablized by resonance, its energy level is lower? As I know, resonance is only a kind of electrons delocalization within the species. There is no interaction between that species and the environment.
 
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Stabilization is equivalent to lowering the energy. Conceptually, you can think of the charge being more evenly distributed when the electrons are delocalized---thus decreasing the electrostatic repulsion between like-charges, and better saturating between opposite charges (i.e. nuclei and electrons).
These processes don't require any interaction with the environment.
 
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