Linked from

The 16 pages that link to Quantum optics, each with the reason it gives.

• PhotonNarrower topic: It investigates individual photons, their statistics, and their interactions.

• Quantum harmonic oscillatorRelated: A single electromagnetic mode has oscillator-like number and coherent states.

• OpticsBroader topic: It becomes necessary for phenomena involving individual photons or quantized states.

• Quantum coherenceRelated: Optical experiments prepare and measure coherence in photon states.

• Wave opticsNarrower topic: It incorporates phenomena such as single-photon detection that classical wave optics cannot explain.

• Atomic physicsRelated: It shares atomic light–matter interactions but gives photons and optical fields equal emphasis.

• Coherent stateNarrower topic: Coherent states are a central state description in this field.

• Quantum DarwinismRelated: Photon environments can provide controllable platforms for testing environmental records.

• Molecular physicsRelated: It provides methods for controlling and measuring molecules through light.

• History of opticsBroader topic: It replaced classical descriptions where light's discrete energy and quantum states matter.

• Roy J. GlauberNarrower topic: Glauber helped establish this field’s modern theoretical foundations.

• Lithium niobateNarrower topic: Nonlinear lithium niobate devices can generate and manipulate quantum states of light.

• Alfred KastlerNarrower topic: Kastler’s experiments helped establish light–atom interaction as a precision research tool.

• Wolfgang PaulNarrower topic: Ion trapping opened experimental routes to controlling individual quantum systems with light.

• Lindblad equationRelated: It models emission, absorption, and loss in optical systems.

• PhotonicsRelated: It examines quantum effects that photonic technologies can exploit or must account for.