Mathematica Non-mathematical philosophy of quantum mechanics.

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In the context of the helium atom, the wavefunction represents the state of the entire two-electron system rather than an individual electron. Specifically, the wavefunction is a function of six variables, corresponding to the positions of both electrons, and it incorporates time. This joint wavefunction, Ψ(x_1, y_1, z_1, x_2, y_2, z_2, t), allows for the calculation of the joint probability density of locating one electron at a specific position while considering the position of the other electron. The probability interpretation of the wavefunction thus applies to the entire system, providing insights into the behavior and interactions of both electrons within the helium atom.
scorpion990
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I've been studying undergraduate level quantum chemistry, and I have a quick question. (Feel free to make the answers as mathematical as you want)

In the helium atom, does an individual wavefunction describe the state of a single electron, or the system in general (given an arbitrary but allowed energy level)? If it describes the entire system, how can the probability interpretation of the wavefunction be used?
 
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Strictly speaking, the wave function for a two-electron system such as helium, is a single function of six position variables (three for each electron) plus time: \Psi(x_1, y_1, z_1, x_2, y_2, z_2, t). It gives the joint probability density for finding electron #1 at (x_1, y_1, z_1) and electron #2 at (x_2, y_2, z_2), at time t.
 
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