Linked from

The 41 pages that link to Nuclear magnetic resonance, each with the reason it gives.

• Magnetic resonance imagingNarrower topic: MRI detects radiofrequency signals produced by nuclear magnetic resonance, chiefly from hydrogen nuclei.

• SpectroscopyBroader topic: Its spectra reveal molecular environments and support structural analysis.

• AromaticityNarrower topic: Aromatic ring currents shift NMR signals and provide evidence about electron delocalization.

• Nuclear magnetic resonance spectroscopyNarrower topic: Spectroscopy applies this physical phenomenon to chemical analysis.

• Functional magnetic resonance imagingNarrower topic: Nuclear magnetic resonance provides the physical basis for MRI signals.

• Neutron diffractionCompared with: It reveals local environments and dynamics rather than long-range order through diffraction.

• SpinRelated: Nuclear spin responses provide the signals used in spectroscopy and imaging.

• Magnetic dipoleRelated: Nuclear dipoles absorb energy at characteristic resonance frequencies.

• Mössbauer spectroscopyCompared with: Both methods reveal local nuclear environments, but use different transitions and energy scales.

• Nuclear spinRelated: Its resonance frequencies depend on the spin states and magnetic moments of nuclei.

• Spin quantum numberRelated: Nuclear spin quantum numbers determine the available magnetic states.

• Chemical shiftNarrower topic: Chemical shifts are measured from the resonance frequencies observed in nuclear magnetic resonance.

• Larmor precessionRelated: Nuclear spins precess at a field-dependent frequency that NMR detects and manipulates.

• Magnetic resonance angiographyNarrower topic: MRI signals underlying MRA arise from nuclear magnetic resonance, chiefly of hydrogen nuclei.

• Quantum theoryRelated: Quantum spin transitions underpin NMR spectroscopy and magnetic resonance imaging.

• Rotational spectroscopyCompared with: It probes nuclear spin environments, not ordinary molecular rotational transitions.

• Nuclear magnetic momentRelated: Nuclear moments set the resonance frequencies used to detect nuclei.

• Pauli matricesRelated: Pauli matrices describe spin-½ nuclei and their driven rotations in quantum models of NMR.

• PrecessionRelated: Nuclear spins precess in magnetic fields, and their resonant response underlies NMR measurements.

• Felix BlochBroader topic: Bloch’s pulsed-field method detected resonant nuclear magnetization in bulk matter.

• ProtiumRelated: Protium’s abundant hydrogen nuclei produce strong signals in proton NMR.

• Magic acidRelated: NMR spectroscopy helps identify carbocations and other intermediates generated in superacid.

• Isidor RabiRelated: Rabi’s experiments established the resonance principle later used in bulk nuclear magnetic resonance.

• Paul LauterburNarrower topic: Lauterbur adapted this signal-producing phenomenon to reveal spatial structure.

• David Lee (physicist)Related: Nuclear magnetic resonance helped characterize the ordered states of superfluid helium-3.

• Douglas OsheroffRelated: NMR measurements helped identify the distinct phases of superfluid helium-3.

• Edward Mills PurcellNarrower topic: Purcell’s Nobel-recognized discovery was the first observation of this phenomenon in bulk matter.

• Nicolaas BloembergenNarrower topic: Bloembergen's doctoral research established theoretical foundations for this method.

• Peter MansfieldNarrower topic: Mansfield adapted its measurable signals into methods for locating and imaging structures inside the body.

• Raymond DamadianNarrower topic: Damadian investigated differences in nuclear magnetic resonance signals from normal and cancerous tissue.

• Atomic magnetometerRelated: Atomic magnetometers can detect the weak fields produced by nuclear magnetic resonance samples.

• Endohedral fullereneRelated: Signals from the guest and cage can expose their interaction and local environment.

• Modern physicsRelated: Quantum spin physics enables spectroscopy and medical magnetic resonance imaging.

• Nuclear structureRelated: Nuclear magnetic moments and spin states connect nuclear structure to a widely used measurement method.

• Richard R. ErnstNarrower topic: Ernst’s spectroscopy techniques measured and interpreted this underlying physical phenomenon.

• Chemical Physics & Physical ChemistryBroader topic: Its physical basis enables detailed analysis of molecular environments and structure.

• Magnetic techniquesRelated: It is the signal-generating basis of several spectroscopic and imaging methods.

• Methods in superconductivityRelated: Its local spin response offers a microscopic complement to bulk thermodynamic measurements.

• Nucleon magnetic momentRelated: Resonance methods provided a route to measuring nuclear magnetic moments.

• Robert Coleman RichardsonRelated: NMR measurements became a key tool for identifying the distinct phases of superfluid helium-3.

• Spin-½Related: Spin-½ nuclei such as hydrogen produce two-level transitions used in NMR.