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The 71 pages that link to Nuclear magnetic resonance spectroscopy, each with the reason it gives.

• Molecular geometryRelated: NMR measurements constrain molecular structures and distinguish conformations in solution.

• Protein structureRelated: It can characterize protein structures and motions without requiring crystals.

• Magnetic momentRelated: Nuclear moments determine the field-dependent energy levels that NMR measures.

• Conformational isomerismRelated: Its signals can reveal conformational populations and exchange rates.

• Molecular spectroscopyRelated: It provides detailed structural information through molecular nuclear resonances.

• Conformational analysisRelated: NMR measurements can reveal conformer populations and exchange rates.

• DiastereomerRelated: Diastereomers can produce distinct NMR signals even in an achiral environment.

• Superconducting magnetRelated: Strong, stable superconducting fields improve spectral resolution and sensitivity.

• Carboxyl groupRelated: NMR signals near a carboxyl group help identify its molecular environment.

• Microwave spectroscopyRelated: Microwave-frequency nuclear resonance occurs for suitable fields and nuclei, though most NMR uses radio frequencies.

• ChloroformRelated: Deuterated chloroform is a common solvent for preparing samples for proton NMR measurements.

• DeuteriumRelated: Deuterium can provide a distinct signal or serve as a solvent label in NMR.

• Distance geometryRelated: NMR-derived distance restraints help infer three-dimensional molecular configurations.

• Intrinsically disordered proteinRelated: NMR can characterize the rapidly fluctuating conformations of disordered proteins.

• MetabolomicsRelated: It measures metabolite signals without requiring molecules to be ionized.

• Molecular structureRelated: Chemical shifts and couplings provide evidence about molecular connectivity and conformation.

• Structural biologyRelated: It measures structures and motions of biomolecules in solution.

• Keto–enol tautomerismRelated: NMR can distinguish keto and enol signals and reveal their exchange.

• PhytochemistryRelated: It can establish the structures of purified phytochemicals.

• Protein Data BankRelated: NMR experiments yield solution-state structures deposited in the archive.

• Quantum metrologyRelated: Spin coherence and polarization determine the sensitivity of NMR measurements.

• Bent's ruleRelated: Bonding changes associated with Bent's rule can influence nuclear shielding and chemical shifts.

• Meso compoundRelated: Molecular symmetry in a meso compound can make otherwise distinct nuclei chemically equivalent.

• Phenyl groupRelated: Phenyl protons produce characteristic signals that help identify aromatic rings in compounds.

• Felix BlochRelated: Bloch’s resonance method made it possible to study nuclei in bulk samples, enabling later chemical applications.

• SpectrometerRelated: NMR instruments analyze frequency spectra produced by nuclei in a magnetic field.

• Structural isomerRelated: Different connectivities often produce distinct patterns of nuclear signals.

• AdamantaneRelated: Adamantane’s symmetry makes its hydrogen and carbon environments unusually straightforward to distinguish.

• Degree of unsaturationRelated: NMR evidence can identify which rings or multiple bonds account for the calculated count.

• NeopentaneRelated: Neopentane’s equivalent methyl groups produce a particularly simple proton NMR signal.

• Nicolaas BloembergenRelated: His early research addressed how nuclear spins exchange energy with their surroundings.

• Peter MansfieldRelated: The spectroscopy community developed many of the resonance and signal-analysis methods that informed Mansfield’s work.

• Ring flipRelated: NMR can reveal whether conformational exchange is slow or fast on the measurement timescale.

• Water memoryRelated: NMR measurements have been used to test claims of persistent differences in treated water.

• GeminalRelated: NMR spectra can reveal interactions between nuclei in geminal positions.

• William LipscombRelated: NMR spectroscopy helped distinguish borane structures and examine their behavior in solution.

• Atomic and molecular structureRelated: NMR provides structural evidence through how nuclei respond to their molecular surroundings.

• Complex mixtureRelated: Overlapping signals can make complex-mixture spectra difficult to interpret.

• DiphosphaneRelated: NMR spectroscopy helps characterize phosphorus environments in diphosphane and related hydrides.

• George Andrew OlahRelated: NMR spectroscopy let chemists observe structures of ions stabilized in superacid solutions.

• Semiheavy waterRelated: Deuterium and protium signals can reveal isotope exchange in aqueous samples.