The question asks about the distribution of electrons in the ground state for an atom with atomic number \( Z = 24 \). We need to find the number of electrons with azimuthal quantum numbers \( l = 1 \) and \( l = 2 \).
First, we determine the electron configuration for chromium (\( Z = 24 \)) in its ground state:
Electron Configuration:
The electron configuration of chromium is \( 1s^2 \, 2s^2 \, 2p^6 \, 3s^2 \, 3p^6 \, 3d^5 \, 4s^1 \).
Now, we interpret the distribution of electrons for each principal energy level and their respective subshells by azimuthal quantum numbers:
Next, we identify how many electrons are in subshells corresponding to each azimuthal quantum number:
**Electrons with \( l = 1 \) (p subshells):**
Total electrons with \( l = 1 \): \( 6 + 6 = 12 \).
Electrons with \( l = 2 \) (d subshells):
Total electrons with \( l = 2 \): 5.
Therefore, the number of electrons with azimuthal quantum numbers \( l = 1 \) and \( l = 2 \) are 12 and 5, respectively.
Conclusion: The correct answer is 12 and 5.
The problem requires determining the number of electrons in the ground state of an atom with atomic number \( Z = 24 \) (chromium), that have azimuthal quantum numbers \( l = 1 \) and \( l = 2 \). Here is the step-by-step explanation:
Therefore, the correct answer is: 12 and 5.
The figures below show:
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