Linked from

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

• WavelengthRelated: Its wavelength settings determine which parts of a sample’s spectrum are measured.

• ColorimetryRelated: Its reflectance spectrum is a common input to colorimetric calculations.

• CalibrationRelated: Spectrophotometers use calibrated responses to relate optical signals to sample properties.

• Mie scatteringRelated: Wavelength-dependent scattering can reveal particle sizes and concentrations in suspensions.

• Chemical oxygen demandRelated: Color changes in digested dichromate samples allow COD to be measured instrumentally.

• ReflectanceRelated: It produces quantitative reflectance measurements for materials and samples.

• Calibration curveRelated: Absorbance measurements are often converted to concentration with a calibration curve.

• Enzyme assayRelated: Absorbance changes can track substrate disappearance or product formation over time.

• Diffuse reflectionRelated: Diffuse-reflectance instruments estimate spectral properties of scattering samples.

• CIELAB color spaceRelated: Spectral measurements can be converted into tristimulus values and then CIELAB coordinates.

• Integrating sphereRelated: Sphere attachments enable measurements of scattering samples that defeat narrow-beam setups.

• Metamerism (color)Related: Spectral data, not tristimulus values, are needed to predict when a match will break.

• Kubelka–Munk equationRelated: Spectral reflectance measurements provide the data used to calculate the equation’s function.