an electron in a hydrogen atom moves from level 1 to level 4. the electron then drops from level 4 to level…

an electron in a hydrogen atom moves from level 1 to level 4. the electron then drops from level 4 to level 2. which statement describes the most likely result? the energy absorbed in the first move equals the energy released in the second move. the energy absorbed in the first move is greater than the energy released in the second move. the energy released in the first move equals the energy absorbed in the second move. the energy released in the first move is greater than the energy absorbed in the second move.

an electron in a hydrogen atom moves from level 1 to level 4. the electron then drops from level 4 to level 2. which statement describes the most likely result? the energy absorbed in the first move equals the energy released in the second move. the energy absorbed in the first move is greater than the energy released in the second move. the energy released in the first move equals the energy absorbed in the second move. the energy released in the first move is greater than the energy absorbed in the second move.

Answer

Explanation:

Step1: Understand electron - level transitions

When an electron moves from a lower energy level (level 1) to a higher energy level (level 4) in a hydrogen atom, it absorbs energy. The energy difference between level 1 and level 4 is $\Delta E_{1 - 4}=E_4 - E_1$.

Step2: Analyze the second transition

When the electron drops from a higher energy level (level 4) to a lower energy level (level 2), it releases energy. The energy difference between level 4 and level 2 is $\Delta E_{4 - 2}=E_4 - E_2$.

Step3: Compare the energy differences

Since $E_1<E_2$, we have $E_4 - E_1>E_4 - E_2$. So the energy absorbed in the first move (from level 1 to level 4) is greater than the energy released in the second move (from level 4 to level 2).

Answer:

The energy absorbed in the first move is greater than the energy released in the second move.