Scanning Tunneling Microscope
GPTKB entity
Statements (52)
Predicate | Object |
---|---|
gptkbp:instanceOf |
scientific instrument
|
gptkbp:abbreviation |
gptkb:STM
|
gptkbp:awarded |
gptkb:Nobel_Prize_in_Physics_1986
|
gptkbp:category |
gptkb:electron_microscope
scanning probe microscope |
gptkbp:commercializedSince |
1980s
|
gptkbp:enables |
surface analysis
nanofabrication atomic manipulation |
gptkbp:feedbackMechanism |
constant current mode
constant height mode |
gptkbp:field |
gptkb:nanotechnology
materials science physics surface science |
gptkbp:firstImage |
silicon surface
|
gptkbp:function |
imaging surfaces at atomic level
|
https://www.w3.org/2000/01/rdf-schema#label |
Scanning Tunneling Microscope
|
gptkbp:influenced |
development of atomic force microscopy
development of nanotechnology |
gptkbp:introducedIn |
1981
|
gptkbp:inventedBy |
gptkb:Gerd_Binnig
gptkb:Heinrich_Rohrer |
gptkbp:measures |
tunneling current
|
gptkbp:NobelPrizeYear |
gptkb:Gerd_Binnig
gptkb:Heinrich_Rohrer |
gptkbp:notableFor |
IBM logo written with xenon atoms
|
gptkbp:operatesIn |
ultra-high vacuum
ambient conditions cryogenic temperatures |
gptkbp:patent |
1982
|
gptkbp:principle |
quantum tunneling
|
gptkbp:relatedTo |
gptkb:Atomic_Force_Microscope
Electron Microscope |
gptkbp:requires |
precise control electronics
vibration isolation sharp tip conductive sample |
gptkbp:resolution |
atomic
0.001 nm vertical 0.01 nm lateral |
gptkbp:scanningMethod |
raster scan
|
gptkbp:signature |
electronic structure image
topographic image |
gptkbp:tipMaterial |
tungsten
platinum-iridium |
gptkbp:uses |
manipulating atoms
mapping surface structure measuring electronic properties |
gptkbp:bfsParent |
gptkb:Atoms
gptkb:Atomic_Force_Microscope |
gptkbp:bfsLayer |
7
|