Linked from

The 17 pages that link to Radiant intensity, each with the reason it gives.

• Radiation pressureRelated: For a directed beam, intensity sets the energy—and momentum—arriving at each area.

• Inverse-square lawRelated: It determines irradiance at a distance through inverse-square geometric spreading.

• Solid angleRelated: It measures how emitted power is distributed across directions.

• Stellar luminosityCompared with: It describes directional emission rather than a star’s total emitted power.

• Radiant fluxBroader topic: It resolves total source flux into its directional distribution.

• Kirchhoff's law of thermal radiationRelated: Directional emission measurements help state the law without averaging over angles.

• IrradianceCompared with: It characterizes a source’s directional output rather than power incident per area.

• Luminous fluxCompared with: It is the radiometric directional quantity corresponding to luminous intensity.

• RadianceRelated: It shares radiance’s directional measure but does not divide by source area.

• RadiometryBroader topic: It describes directional power when total radiant flux is insufficient.

• Spectral radianceCompared with: Unlike spectral radiance, it does not divide by projected area.

• Luminous intensityCompared with: Comparing it with luminous intensity reveals the effect of visual weighting.

• CandelaCompared with: It measures physical energy rather than light weighted for human visual sensitivity.

• Poynting vectorCompared with: It describes angular distribution of emitted power rather than local flux through area.

• Bolometric luminosityRelated: It differs from total luminosity by retaining directional rather than all-sky information.

• SteradianRelated: Its denominator is measured in steradians, linking source power to angular spread.

• CandlepowerCompared with: It measures physical radiation without the visual weighting used by candlepower.