Atomic Force Microscope Images
Nanosurf AFMs are used for applications ranging from material characterizations to biological samples like live cells. On this page you can browse the gallery of all our published atomic force microscopy images. All AFM images in this gallery were measured with a Nanosurf AFM. For in-depth articles of specific applications, visit the application notes page.
HOPG topography recorded in static mode on DriveAFM
Mouse fibroblasts in cell culture medium
Performing Bio-AFM on live cells
Morphological characterization of various PDINO, TiOx, and PDINO:TiOx blend films
WaveMode image of mouse tail collagen
Thermal Lithography at PVAC thin film
Moiré super lattice of twisted graphene on hBN
Embryonic mouse fibroblasts
Trimeric arrangement of bacteriorhodopsin (BR) proteins and substructures
棒状样品的AFM: 商业 Pt 电极上的 Cu 沉积
3D Renderings of Atomic Force Microscope Images
Graphene imaged in Kelvin probe force microscopy (KPFM) mode
Geobacter bacterium on gold substrate imaged in dynamic force mode
SBS-PS polymer blend imaged in phase contrast mode
Quantum dots on potassium bromide (KBr) imaged in dynamic force mode
Magnetic tape imaged in magnetic force microscopy (MFM) mode
Gold (Au111) imaged in scanning tunneling microscopy (STM) mode
Graphene like C3N imaged in scanning thermal microscopy (sThM) mode
dsDNA imaged in dynamic force mode
Aluminum pillars on gold imaged in Kelvin force microscopy (KPFM) mode
SBRS-PMMA polymer blend imaged in force modulation mode
Mill moth wing imaged in static force mode
Laser ablation crater in TiO2 imaged in dynamic force mode
SBS-PMMA polyer blend imaged in lateral force microscopy (LFM) mode
SBR-PMMA polymer blend imaged in phase contrast mode
DVD imaged in dynamic force mode
SrTiO3 topography measured in dynamic force mode
Scanning Tunneling Microscope Images
Scanning tunneling microscopy makes it possible to see individual atoms. Since STM is based on quantum tunneling, where a voltage difference (bias) is applied between the tip and the sample surface, it only is applicable to metal surfaces or other conducting materials. View this gallery of STM images for examples of different surfaces at atomic resolution (single atoms are discernible).