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Taking into account the motion of the nu...

Taking into account the motion of the nucleus of a hydrogen atom , find the expressions for the electron's binding energy in the ground state and for the Rydberg constant. How much (in percent) do the binding energy and the Rydberg constant , obtained without taking into account corresponding values of these of these quantities?

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To solve the problem of finding the expressions for the electron's binding energy in the ground state and for the Rydberg constant, while considering the motion of the nucleus of a hydrogen atom, we will follow these steps: ### Step 1: Understanding the Binding Energy in the Ground State The binding energy (E) of an electron in a hydrogen atom can be expressed using the formula: \[ E = -\frac{2 \pi^2 k^2 e^4 \mu}{h^2 n^2} ...
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