PeakForce QNM by Bruker Nano Surfaces and Metrology
Manufacturer Bruker Nano Surfaces and Metrology
Unprecedented quantitative characterization of materials on the nanoscale PeakForce QNM® (Quantitative Nanomechanical Property Mapping) allows quantitative nanomechanical mapping of material properties, including modulus and adhesion, while simultaneously imaging sample topography at high resolution. PeakForce QNM and its counterpart mode PeakForce Mapping are based on Bruker's exclusive PeakForce Tapping® technology, which records very fast force response curves at every pixel in the image. The... Read more
PeakForce QNM
Unprecedented quantitative characterization of materials on the nanoscale
PeakForce QNM® (Quantitative Nanomechanical Property Mapping) allows quantitative nanomechanical mapping of material properties, including modulus and adhesion, while simultaneously imaging sample topography at high resolution. PeakForce QNM and its counterpart mode PeakForce Mapping are based on Bruker's exclusive PeakForce Tapping® technology, which records very fast force response curves at every pixel in the image. The force control made possible by this technique leads to longer probe lifetimes and improved sample integrity, as well as correlated, high-resolution nanomechanical and topographic data.
These capabilities dramatically exceed those of any other technique for nanoscale materials characterization, changing the perception and use of AFM.
PeakForce QNM® (Quantitative Nanomechanical Property Mapping) allows quantitative nanomechanical mapping of material properties, including modulus and adhesion, while simultaneously imaging sample topography at high resolution. PeakForce QNM and its counterpart mode PeakForce Mapping are based on Bruker's exclusive PeakForce Tapping® technology, which records very fast force response curves at every pixel in the image. The force control made possible by this technique leads to longer probe lifetimes and improved sample integrity, as well as correlated, high-resolution nanomechanical and topographic data.
These capabilities dramatically exceed those of any other technique for nanoscale materials characterization, changing the perception and use of AFM.
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