Linked from

The 12 pages that link to Jones calculus, each with the reason it gives.

• PolarizationRelated: It tracks how optical components change polarization amplitudes and phases.

• Optical activityRelated: It represents polarization rotation as a transformation of the electric-field components.

• PolarimetryRelated: It models ideal polarimetric measurements when light is fully polarized.

• Linear polarizationRelated: Its two-component vectors encode linear polarization and predict changes through optical elements.

• Faraday effectRelated: It represents Faraday rotation as a transformation of the polarization state.

• PolarizerRelated: Its matrix formalism models how a polarizer transforms a polarization state.

• Circular polarizationRelated: Its complex amplitudes encode the relative phase that distinguishes circular polarization from linear polarization.

• Mach–Zehnder interferometerRelated: It tracks polarization changes through beam splitters, mirrors, and phase elements.

• Optical isolatorRelated: Its matrices show why reversing the propagation direction does not undo Faraday rotation.

• Crystal opticsRelated: It tracks polarization changes through crystal plates and other optical components.

• Malus' lawRelated: Its projection matrices derive the transmitted field amplitude behind an analyzer.