Hydrogen Spectrum Simulation
Explore the quantized energy levels and spectral lines of the hydrogen atom.
The Hydrogen Atom & Its Spectrum
The simplest atom, hydrogen, consists of a single proton and a single electron. The Bohr model successfully explains its distinct spectral lines. Electrons can only occupy specific quantized energy levels (orbits), denoted by the principal quantum number '$n$'.
When an electron jumps from a higher energy level to a lower one, it emits a photon of light with energy exactly equal to the difference between the levels. Conversely, it absorbs a photon to jump to a higher level. These emitted/absorbed photons correspond to specific wavelengths, forming the line spectrum of hydrogen.
How to Use the Simulation
- The Atomic View (top-left) shows the electron orbiting the nucleus.
- The Energy Level Diagram (bottom-left) shows the allowed energy states for the electron.
- The Spectral Series View (right) visualizes the different series of spectral lines.
- Click on any energy level in the Energy Level Diagram to move the electron to that orbit.
- Use "Excite Electron" to jump it to a random higher level (simulating absorption).
- Use "De-excite Electron" to make it fall to a random lower level (simulating emission).
- The Spectral Output at the bottom will show the calculated photon properties for each transition.
Controls
Current State
The electron is in the ground state (n=1). Excite it to begin.
Energy Level ($n$): 1
Energy ($E_n$): 0 eV
Atomic View
Energy Level Diagram
Spectral Series View
Spectral Output (Last Transition)
Transition: N/A
Photon Energy ($\Delta E$): 0 eV
Wavelength ($\lambda$): 0 nm
Frequency ($f$): 0 PHz
Spectral Series: N/A
Color: N/A