Linked from

The 130 pages that link to Spectroscopy, each with the reason it gives.

• Zeeman effectNarrower topic: Spectroscopy measures the line shifts and separations that define the effect.

• Spectral lineNarrower topic: Spectroscopy uses line patterns to identify substances and infer physical conditions.

• Visible spectrumNarrower topic: Visible spectroscopy measures absorption or emission within the human-visible band.

• MetallicityNarrower topic: Astronomers infer metallicity from element-specific absorption and emission features in spectra.

• Analytical chemistryNarrower topic: Many analytical methods infer composition from characteristic interactions between matter and radiation.

• Galaxy rotation curveNarrower topic: Spectral measurements turn galaxy light into velocity data.

• Atomic spectrumNarrower topic: Atomic spectra are a central source of information in spectroscopic analysis.

• Gustav KirchhoffNarrower topic: Kirchhoff helped establish spectral analysis as a means of identifying substances.

• Robert BunsenNarrower topic: Bunsen’s work with Kirchhoff helped make spectroscopy a chemical identification method.

• Wolf–Rayet starNarrower topic: Spectroscopy revealed the broad emission features that first distinguished the stars.

• Fraunhofer linesNarrower topic: Fraunhofer lines helped establish spectra as evidence about matter beyond direct sampling.

• Emission spectrumNarrower topic: It uses emission spectra to analyze substances and physical processes.

• Sloan Digital Sky SurveyNarrower topic: SDSS spectra reveal object types, chemical properties, and redshifts.

• SpectrophotometryNarrower topic: Spectrophotometry is one measurement-based branch of this broader field.

• Chemical analysisNarrower topic: Many chemical methods infer composition from characteristic absorption or emission of light.

• Fabry–Pérot interferometerNarrower topic: The interferometer became a tool for resolving fine structure in optical spectra.

• Rydberg formulaNarrower topic: The formula grew from attempts to organize measured atomic spectra.

• Doppler broadeningNarrower topic: Spectroscopy measures line profiles whose widths can encode particle velocities.

• Atomic energy levelNarrower topic: It measures level spacings through characteristic transitions and spectral lines.

• Spectral energy distributionNarrower topic: Spectroscopic measurements resolve the features that make a distribution informative.

• Balmer seriesNarrower topic: Measurements of hydrogen spectra revealed the regularity Balmer described.

• Hydrogen spectral seriesNarrower topic: Hydrogen series were among the precise line patterns that established spectroscopy as a tool for atomic physics.

• Lyman-alpha forestNarrower topic: The forest is identified and measured by analyzing quasar spectra.

• Vesto SlipherNarrower topic: Slipher used spectroscopy to measure the displacement of nebular spectral lines.

• DispersionNarrower topic: Measured spectral dispersion can help determine a material’s optical properties.

• Hydrogen spectrumNarrower topic: Hydrogen’s measured lines became a foundational case for interpreting spectra.

• Kirchhoff's laws of spectroscopyNarrower topic: Kirchhoff's rules provide a foundational interpretation of emission and absorption spectra.

• Spectral line broadeningNarrower topic: Spectroscopy uses line widths alongside line positions and strengths to infer physical properties.

• RubidiumNarrower topic: Rubidium was discovered through the distinctive spectral lines of its compounds.

• StarNarrower topic: Stellar spectra let astronomers infer properties that cannot be measured by direct sampling.

• William CrookesNarrower topic: Crookes used spectral lines to discover thallium and investigate elements.

• Rydberg constantNarrower topic: The constant is inferred and tested through measured atomic spectra.

• Solar spectrumNarrower topic: It supplies the measurement methods used to interpret solar light.

• SpectroscopeNarrower topic: Spectroscopes provide visual observations used in qualitative spectroscopy.

• Einstein coefficientsNarrower topic: Measured spectral lines reflect transition probabilities associated with the coefficients.

• Anders Jonas ÅngströmNarrower topic: Ångström’s work helped establish spectroscopy through precise wavelength measurements.

• Joseph von FraunhoferNarrower topic: Fraunhofer’s line measurements helped make spectra a quantitative subject of physical study.

• Lyman seriesNarrower topic: The series was identified by measuring hydrogen’s ultraviolet emission spectrum.

• Johannes RydbergNarrower topic: Rydberg’s formulas emerged from spectroscopy and made its line patterns more interpretable.

• Vera RubinNarrower topic: Rubin’s team inferred gas velocities from Doppler shifts in spectral lines.

• Pieter ZeemanNarrower topic: Spectroscopy provided the methods and questions behind Zeeman’s experiment.

• ÅngströmNarrower topic: Spectroscopy helped establish the need for a convenient unit for short wavelengths.

• ThalliumNarrower topic: Thallium was first recognized through a previously unexplained emission line.

• Heinrich KayserNarrower topic: Kayser’s research used spectral measurements to identify and compare the emissions of elements.

• Instrumental chemistryNarrower topic: Many instruments identify compounds by measuring characteristic absorption, emission, or scattering of light.

• Johann Wilhelm RitterNarrower topic: Ritter’s discovery broadened the spectral region available for investigation.

• NebuliumNarrower topic: Spectroscopy revealed the lines that nebulium was invented to explain.