This simulator shows how a single sharp spectral line splits into multiple closely spaced lines as an external magnetic field is applied, letting you compare the simple normal Zeeman triplet with the more complex, unevenly spaced anomalous pattern produced when electron spin is involved.
Adjust the magnetic field strength slider to see the spectral line split apart, and toggle between transitions with zero net spin and transitions involving spin to compare the normal and anomalous Zeeman patterns side by side.
Sliders and toggles let you vary the magnetic field strength and switch between normal and anomalous splitting modes to see how the resulting spectral line pattern changes in real time.
The anomalous Zeeman effect remained unexplained for almost thirty years after its discovery, until physicists realized electrons carry an intrinsic spin, a revelation that reshaped the entire foundation of quantum mechanics.
This simulator shows how a single sharp spectral line splits into multiple closely spaced lines as an external magnetic field is applied, letting you compare the simple normal Zeeman triplet with the more complex, unevenly spaced anomalous pattern produced when electron spin is involved.
This simulator shows how a single sharp spectral line splits into multiple closely spaced lines as an external magnetic field is applied, letting you compare the simple normal Zeeman triplet with the more complex, unevenly spaced anomalous pattern produced when electron spin is involved.
Adjust the magnetic field strength slider to see the spectral line split apart, and toggle between transitions with zero net spin and transitions involving spin to compare the normal and anomalous Zeeman patterns side by side.
The anomalous Zeeman effect remained unexplained for almost thirty years after its discovery, until physicists realized electrons carry an intrinsic spin, a revelation that reshaped the entire foundation of quantum mechanics.