| style="background:LightGrey; color:black"|Substrate material allowed
|style="background:WhiteSmoke; color:black"|In principle all materials
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=Nanoman - will be decommissioned in November 2014=
[[image:Nanoman.jpg|290x290px|right|thumb|Nanoman: positioned in cleanroom F-2]]
The AFM: Nanoman is a product of Bruker. AFM stands for Atomic Force Microscope which is a scanning probe microscope where a sharp probe is scanned across a surface either in contact mode or tapping mode. The outcome is a topographic plot of the surface. It has a lateral solution of about 1 nm and a vertical resolution of less than 1 Å which makes it very suitable for topographic characterization in the nanometer regime. The limiting factor however is often the size of the probe in use. The tip radius of curvature (ROC) can be from 2 nm up to more than 20 nm depending on the chosen probe. The half cone angle of the tip can vary from less than 3<sup>o</sup> to over 25<sup>o</sup> giving problems resolving high aspect ratio structures.
The main purposes are surface roughness measurements and step/structure high measurements in the nanometer and sub-micrometer regime. For larger structure see the [[Specific Process Knowledge/Characterization/Topographic measurement|topografic measurement]] page.
To get some product information from the vendor take a look at Bruker's homepage [http://www.bruker-axs.com/atomicforcemicroscopy.html] (Bruker acquired Veeco's AFM business in Oct. 2010)
'''The user manual, quality control procedure and results and contact information can be found in LabManager:''' <br/>
[http://labmanager.danchip.dtu.dk/function.php?module=Machine&view=view&mach=125 Nanoman in LabManager]
==Process Information==
[[Image:Tap300Al-G.jpg|right|thumb|Std. tip Tap300Al-G]]
[[Image:Tap300Al-G-schematic.png|right|thumb|Std. tip Tap300Al-G]]
[[Image:Nanoman cantilever AR5.jpg|right|thumb|AR5-NCHR tip<br /> (Aspect Ratio 5)]]
For a tutorial on AFM see here: [http://www.doitpoms.ac.uk/tlplib/afm/index.php AFM]
Free analysis software: For visualizing and analyzing AFM and Optical profiler files (Nanoman and Sensofar) [http://gwyddion.net Gwyddion] <br>
Or you can install Brukers own software analyses program that can be found here on the cleanroom drive: U:\DCH\CleanroomDrive\_Equipment\AFM\NanoScope_Ananlysis_x64_v150b53.exe
==An overview of the performance of the AFM: Nanoman==
The AFM Dimension Icon is a product of Bruker. AFM stands for Atomic Force Microscope which is a scanning probe microscope where a sharp probe is scanned across a surface either in contact mode, tapping mode or PeakForce tapping mode. The outcome is a topographic plot of the surface. It has a lateral solution of about 1 nm and a vertical resolution of less than 1 Å which makes it very suitable for topographic characterization in the nanometer regime. The limiting factor however is often the size of the probe in use. The tip radius of curvature (ROC) can be from 2 nm up to more than 20 nm depending on the chosen probe. The half cone angle of the tip can vary from less than 3o to over 25o giving problems resolving high aspect ratio structures.
The main purposes are surface roughness measurements and step/structure high measurements in the nanometer and sub-micrometer regime. For larger structure see the topografic measurement page.
To get some product information from the vendor take a look at Bruker's homepage [1]
The user manual, quality control procedure and results and contact information can be found in LabManager: Nanoman in LabManager
Free analysis software: For visualizing and analyzing AFM and Optical profiler files (Nanoman and Sensofar) Gwyddion
or you can install Brukers own software analyses program that can be found on the cleanroom drive: U:\DCH\CleanroomDrive\_Equipment\AFM\NanoScope_Analysis_x64_v150b53.exe
or you can get a SPIP license for free if you are connected one of the following institutes (Nanotech, Physics, Chemistry, Mechanics, CEN, Danchip, Energikonvertering) , by contacting John Tandrup Riedel
