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The 51 pages that link to Raman spectroscopy, each with the reason it gives.

• SpectroscopyBroader topic: It reveals vibrational information complementary to infrared absorption.

• Infrared spectroscopyCompared with: Its selection rules complement infrared activity, so the methods often reveal different vibrations.

• MicroplasticsRelated: It can characterize small particles, including particles too small for some infrared methods.

• Selection ruleRelated: Raman activity follows different symmetry conditions from infrared absorption.

• PhononRelated: Raman scattering reveals phonon energies and symmetry in materials.

• Absorption spectrumCompared with: It probes vibrational structure through scattered light rather than direct absorption.

• Tetrahedral molecular geometryRelated: Tetrahedral symmetry helps determine the Raman activity of vibrational modes.

• ScatteringBroader topic: The energy shifts in scattered photons reveal molecular structure.

• Molecular spectroscopyRelated: Its shifted scattered light reveals vibrations that may be weak or inactive in infrared absorption.

• X-ray fluorescenceCompared with: Raman spectra reveal molecular bonds, while X-ray fluorescence primarily reports elemental composition.

• Molecular vibrationRelated: Raman scattering detects vibrations that change molecular polarizability.

• X-ray spectroscopyCompared with: It probes vibrational fingerprints, unlike X-ray methods’ core-level and elemental signals.

• Absorption spectroscopyCompared with: It probes vibrational structure through shifted scattered photons, not direct absorption.

• Vibrational spectroscopyBroader topic: Its shifted scattered light reveals vibrations through changes in molecular polarizability.

• Molecular symmetryRelated: Symmetry determines which vibrational modes change polarizability and appear in Raman spectra.

• Atomic spectroscopyCompared with: Raman measurements usually reveal molecular vibrations rather than free-atom energy levels.

• Ultraviolet–visible spectroscopyCompared with: It measures wavelength shifts in scattered light rather than direct ultraviolet–visible absorption.

• Fluorescence spectroscopyCompared with: It detects scattered excitation light rather than fluorescence emission.

• Microwave spectroscopyCompared with: Raman activity depends on polarizability changes rather than a permanent dipole.

• SpectrophotometryCompared with: It extracts vibrational information from scattered light, not absorption alone.

• Photoelectron spectroscopyCompared with: It primarily probes vibrational excitations, unlike photoemission’s electron binding energies.

• WavenumberRelated: Raman shifts are conventionally expressed as wavenumbers in reciprocal centimeters.

• Circular dichroismCompared with: It probes vibrational shifts in scattered light instead of polarization-dependent absorption.

• PolarizabilityRelated: Changes in polarizability during vibration determine Raman activity.

• Fourier-transform infrared spectroscopyCompared with: Its selection rules complement infrared absorption, making the methods useful together.

• Laser spectroscopyRelated: A laser supplies the intense monochromatic light needed to resolve small Raman shifts.

• Spectral resolutionRelated: Closely spaced Raman bands can require high spectral resolution for reliable identification.

• Mineral identificationRelated: Its chemical fingerprints can identify small mineral grains with limited sample preparation.

• MonochromatorRelated: A narrow excitation band helps distinguish weak Raman shifts from scattered laser light.

• Peter DebyeRelated: The molecular polarizability concepts developed alongside Debye’s work underpin interpretation of Raman scattering.

• Optical spectroscopyBroader topic: It supplies vibrational fingerprints complementary to infrared absorption.

• Rotational spectroscopyCompared with: It can reveal rotational structure through inelastic scattering rather than absorption alone.

• AzuriteRelated: Conservators can distinguish azurite from other blue pigments without sampling.

• Electronic spectroscopyCompared with: Its commonly used vibrational signals arise from scattering rather than electronic absorption bands.

• Inelastic scatteringBroader topic: The shifted photon energies directly encode vibrational modes.

• Mineral speciesRelated: Its spectra can help identify minerals, especially in tiny or altered samples.

• High-pressure chemistryRelated: Changes in vibrational frequencies reveal bonding and structural changes under pressure.

• C. V. RamanBroader topic: The effect Raman discovered became the basis of this analytical method.

• SpectrometerBroader topic: Raman spectrometers resolve the small frequency shifts that encode molecular vibrations.

• Amorphous carbonRelated: Its spectral bands help assess disorder and bonding in carbon materials.

• Molecular physicsBroader topic: It reveals molecular vibrational structure through inelastic light scattering.

• LazuriteRelated: Its spectral features can help identify lazurite in minerals and artworks.

• Nicolaas BloembergenNarrower topic: Laser-based Raman methods build on optical interactions central to Bloembergen's research.

• Stokes shiftCompared with: Its measured wavelength shifts arise from scattering rather than post-absorption fluorescence.

• Rotational–vibrational spectroscopyCompared with: Raman activity follows different selection rules from infrared absorption.

• Optical spectrometerRelated: It uses optical spectral measurements to infer molecular structure.

• Absorption bandCompared with: It probes vibrational modes through scattering rather than absorption.

• ChemometricsRelated: Multivariate analysis helps interpret complex Raman spectra and quantify mixtures.

• Infrared techniquesCompared with: It provides vibrational information through scattering rather than infrared absorption.

• Methods in superconductivityRelated: Its symmetry-sensitive response can probe collective excitations and superconducting gap structure.