Input interpretation
![Rydberg formula](../image_source/b8e27ebb6961fe708adb783260dc7d28.png)
Rydberg formula
Equation
![1/λ = R_∞ Z^2 abs(1/n_f^2 - 1/n_i^2) | λ | photon wavelength n_f | principal quantum number of final state n_i | principal quantum number of initial state Z | atomic number R_∞ | Rydberg constant (≈ 1.0973731568×10^7 m^(-1))](../image_source/e3721e614d343f02138c6873e8ea27ac.png)
1/λ = R_∞ Z^2 abs(1/n_f^2 - 1/n_i^2) | λ | photon wavelength n_f | principal quantum number of final state n_i | principal quantum number of initial state Z | atomic number R_∞ | Rydberg constant (≈ 1.0973731568×10^7 m^(-1))
Input values
![principal quantum number of final state | 1 principal quantum number of initial state | 2 atomic number | 1](../image_source/384ee82cbfd81921913bbd31ef65e982.png)
principal quantum number of final state | 1 principal quantum number of initial state | 2 atomic number | 1
Results
![photon wavelength | 121.5 nm (nanometers) = 1.215×10^-7 meters photon frequency | 2.467×10^15 Hz (hertz) photon energy | 1.635×10^-18 J (joules) photon color | (ultraviolet) series of transition | Lyman](../image_source/4b18195af03f77957b1019b6177d2717.png)
photon wavelength | 121.5 nm (nanometers) = 1.215×10^-7 meters photon frequency | 2.467×10^15 Hz (hertz) photon energy | 1.635×10^-18 J (joules) photon color | (ultraviolet) series of transition | Lyman