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Note, however, that any boundary conditions we may wish to impose for [Formula Presented] near the particle are strictly only satisfied for an isolated particle. As other particles approach the boundary values may deviate slightly from those at infinity. This is a result of the system minimizing the total distortion energy. In order to understand why this is happening it may help to think of ψ as a chemical potential field for the layer compression (expansion) [Formula Presented] This field is chosen so as to fix the distortion correctly for infinite particle separation but the boundary values deviate in an elastic fashion as the particles approach from infinity. However, we believe that our description is adequate for large enough separations, in the spirit of the perturbation expansion Eq. (1)
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Note, however, that any boundary conditions we may wish to impose for u near the particle are strictly only satisfied for an isolated particle. As other particles approach the boundary values may deviate slightly from those at infinity. This is a result of the system minimizing the total distortion energy. In order to understand why this is happening it may help to think of ψ as a chemical potential field for the layer compression (expansion) ∂zu. This field is chosen so as to fix the distortion correctly for infinite particle separation but the boundary values deviate in an elastic fashion as the particles approach from infinity. However, we believe that our description is adequate for large enough separations, in the spirit of the perturbation expansion Eq. (1).
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