Problem: Suppose that in an alternate universe, the possible values of l are the integer values from 0 to n (instead of 0 to n - 1). Assuming no other differences between this universe and ours, how many orbitals would exist in each level in the alternate universe?n = 2

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FREE Expert Solution

In this problem, we are asked to find the number of orbitals that would exist in an alternate universe in which the possible values of are the integer values from 0 to n (instead of 0 to n - 1), where n=2.


The angular momentum quantum number (l), also known as the azimuthal quantum number, tells us the shape of the electron orbitals.

  • It uses the variable with a formula of n-1.

The magnetic quantum number (mldeals with the orientation of the orbital in the space around the nucleus.

  • It is a range of the previous quantum number: -l to +l.


To solve this problem:

Step 1. List the possible values of the angular momentum quantum number.

Step 2. Determine the possible values of the magnetic quantum number.

Step 3. Count the total number of orbitals.


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Problem Details

Suppose that in an alternate universe, the possible values of l are the integer values from 0 to n (instead of 0 to n - 1). Assuming no other differences between this universe and ours, how many orbitals would exist in each level in the alternate universe?

n = 2

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Our tutors have indicated that to solve this problem you will need to apply the Introduction to Quantum Mechanics concept. You can view video lessons to learn Introduction to Quantum Mechanics. Or if you need more Introduction to Quantum Mechanics practice, you can also practice Introduction to Quantum Mechanics practice problems.

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Based on our data, we think this problem is relevant for Professor Lee's class at University of Western Ontario.