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The 23 pages that link to Transmission electron microscopy, each with the reason it gives.

• Electron microscopyBroader topic: It reveals internal structure by detecting electrons that pass through the specimen.

• Electron diffractionRelated: Electron diffraction is commonly performed and interpreted within this instrument.

• Electron microscopeBroader topic: This mode reveals internal structures by passing electrons through the sample.

• MicroscopeBroader topic: It reveals internal ultrastructure but requires specimens thin enough for electron transmission.

• Carbon nanotubeRelated: Electron microscopy made the tubes’ nested walls and nanoscale dimensions visible.

• Scanning tunneling microscopeCompared with: It images internal structure through transmitted electrons, not surface tunneling current.

• Cryo-electron microscopyNarrower topic: Cryogenic preparation adapts this imaging method to preserve biological structure.

• Scanning electron microscopyCompared with: TEM reveals internal structure through thin samples, unlike SEM's emphasis on surface-emitted signals.

• Scanning probe microscopyCompared with: It images internal structure through transmitted electrons rather than tracing a surface with a probe.

• Energy-dispersive X-ray spectroscopyRelated: EDS in a transmission electron microscope can analyze composition at much finer spatial scales.

• Ernst RuskaBroader topic: Ruska’s pioneering instrument became the basis of transmission electron microscopy.

• Electron backscatter diffractionCompared with: TEM offers finer-scale structural analysis but requires thin foils and different sampling geometry.

• Clinton DavissonBroader topic: It uses electron transmission and scattering to reveal fine structural detail.

• Interstitial defectRelated: It can reveal defect structures and clusters formed during interstitial migration.

• Solid-state reactionRelated: It can expose reaction fronts, interfaces, and defects hidden by bulk measurements.

• Gerd BinnigCompared with: It uses transmitted electrons, unlike Binnig’s surface-scanning method based on tunneling current.

• Osmium tetroxideRelated: Osmium-treated biological samples gain electron contrast for transmission imaging.

• George Paget ThomsonBroader topic: The electron scattering Thomson studied is central to interpreting images in this method.

• Scherrer equationCompared with: It provides direct images of particles or domains to compare with diffraction-derived sizes.

• Surface analysis (materials science)Compared with: It examines internal structure in thin sections rather than only the exposed surface.

• Electron techniquesBroader topic: It reveals internal structure at fine spatial scales using transmitted electrons.

• June AlmeidaNarrower topic: Almeida used this method to examine viruses that ordinary light microscopes could not resolve.

• Timeline of microscope technologyBroader topic: It was the first electron microscopy mode to deliver detailed internal structure.