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

• Radiocarbon datingRelated: It corrects for historical variation in atmospheric carbon-14.

• Beer–Lambert lawRelated: Standards establish the absorbance–concentration relation used to quantify unknown samples.

• CalibrationBroader topic: A curve expresses how readings map to the quantity being measured across a range.

• Analytical chemistryRelated: Instrument signals become concentrations only through comparison with standards.

• Archaeological datingRelated: Radiocarbon years require calibration because atmospheric carbon-14 has varied over time.

• Limit of detectionRelated: Its slope translates a signal threshold into an estimated analyte amount.

• Atomic absorption spectroscopyRelated: Standards establish the response needed to infer concentrations in unknown samples.

• ThermocoupleRelated: It maps thermocouple voltage to temperature for a specified wire type.

• Elemental analysisRelated: It converts measured signals into elemental concentrations.

• PotentiometryRelated: Calibration translates measured potential into an estimated ion activity or concentration.

• Absolute datingRelated: Calibration converts radiocarbon measurements into calendar-age estimates.

• Radiocarbon calibrationBroader topic: The curve supplies the reference relationship used in each conversion.

• Electrochemical sensorRelated: It converts an electrical output into an estimate of chemical concentration.

• Chemical sensorRelated: Calibration maps a sensor’s signal to chemical concentration.

• Atomic emission spectroscopyRelated: Known standards translate emission intensity into elemental concentration.

• Atomic techniquesRelated: It converts measured atomic signals into quantitative concentrations.

• Instrumental chemistryRelated: It converts a measured signal into an estimated concentration.