Order the following transitions in the hydrogen atom from smallest to largest frequency of light absorbed: \(n=3\) to \(n=6, n=4\) to \(n=9, n=2\) to \(n=3,\) and \(n=1\) to \(n=2 .\)

Short Answer

Expert verified
The order of transitions from smallest to largest frequency of light absorbed is: \[n=4 \to n=9, n=3 \to n=6, n=2 \to n=3, \text{ and } n=1 \to n=2 \]

Step by step solution

01

Recall the Rydberg formula

For a hydrogen atom, the Rydberg formula relates the frequency of the absorbed light, \(v\), to the energy levels involved in the transition: \[v=R_H\left(\frac{1}{n_i^2}-\frac{1}{n_f^2}\right)\] where \(R_H\) is the Rydberg constant for hydrogen (\(R_H\approx 3.29\times10^{15}s^{-1}\)), \(n_i\) is the initial energy level ("lower" energy state), and \(n_f\) is the final energy level ("higher" energy state).
02

Calculate the frequency for each transition

We will now apply the Rydberg formula to determine the frequency of the light absorbed for each of the given transitions: 1. \(n=3\) to \(n=6\): \(v_1=R_H\left(\frac{1}{3^2}-\frac{1}{6^2}\right)\) 2. \(n=4\) to \(n=9\): \(v_2=R_H\left(\frac{1}{4^2}-\frac{1}{9^2}\right)\) 3. \(n=2\) to \(n=3\): \(v_3=R_H\left(\frac{1}{2^2}-\frac{1}{3^2}\right)\) 4. \(n=1\) to \(n=2\): \(v_4=R_H\left(\frac{1}{1^2}-\frac{1}{2^2}\right)\) Now, we will compute the frequencies for each transition: 1. \(v_1=3.29\times10^{15}\left(\frac{1}{9}-\frac{1}{36}\right)\approx 2.47\times10^{15}s^{-1}\) 2. \(v_2=3.29\times10^{15}\left(\frac{1}{16}-\frac{1}{81}\right)\approx 1.91\times10^{15}s^{-1}\) 3. \(v_3=3.29\times10^{15}\left(\frac{1}{4}-\frac{1}{9}\right)\approx 4.95\times10^{15}s^{-1}\) 4. \(v_4=3.29\times10^{15}\left(\frac{1}{1}-\frac{1}{4}\right)\approx 8.23\times10^{15}s^{-1}\)
03

Order the transitions based on frequency

Finally, we can order the transitions from smallest to the largest based on the frequency of light absorbed: - Smallest frequency: \(n=4\) to \(n=9\), with \(v_2\approx 1.91\times10^{15}s^{-1}\) - Next smallest frequency: \(n=3\) to \(n=6\), with \(v_1\approx 2.47\times10^{15}s^{-1}\) - Next largest frequency: \(n=2\) to \(n=3\), with \(v_3\approx 4.95\times10^{15}s^{-1}\) - Largest frequency: \(n=1\) to \(n=2\), with \(v_4\approx 8.23\times10^{15}s^{-1}\) So, the order of transitions from smallest to largest frequency of light absorbed is: \[n=4 \to n=9, n=3 \to n=6, n=2 \to n=3, \text{ and } n=1 \to n=2 \]

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Most popular questions from this chapter

An experiment called the Stern-Gerlach experiment helped establish the existence of electron spin. In this experiment, a beam of silver atoms is passed through a magnetic field, which deflects half of the silver atoms in one direction and half in the opposite direction. The separation between the two beams increases as the strength of the magnetic field increases. (a) What is the electron configuration for a silver atom? (b) Would this experiment work for a beam of cadmium (Cd) atoms? (c) Would this experiment work for a beam of fluorine (F) atoms?

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