Cutting-edge CPEM technology allows the simultaneous acquisition of AFM and SEM data and their seamless correlation.
In-situ conditions inside the SEM ensure sample analysis at the same time, in the same place and under the same conditions.
Extremely precise and timesaving approach uses SEM to navigate the AFM tip to the region of interest, enabling its fast & easy localization.
The complex sample analysis at nanoscale is the crucial point in the research process. However, the need for multiple analytical instruments to undertake the correlative analysis was complicating the overall measurement feasibility.
The introduction of the AFM-in-SEM technology via LiteScope changed this situation. Its unique method of multidimodal imaging (CPEM) enables simultaneous acquisition of the data from SEM and AFM, and their seamless correlation into 3D images. Thanks to LiteScope, you can correlate sample topography, mechanical, electrical, chemical and magentic properties.
On the image on the left you can see an example of the broad spectre of channels acquired during LiteScope measurement. All of these AFM and SEM channels were acquired in in-situ conditions and their immediate correlation in our NenoView software offers a unique complex information about different properties of the sample.
The need of in-situ analysis of sensitive samples was one of the principal impulses for designing the AFM-in-SEM LiteScope. Thanks to our innovative setup, it's finally possible to perform both AFM and SEM analysis directly in the SEM chamber without exposure to ambient conditions. That means no risk of sample contamination.
As you can see on the picture on the left, LiteScope installed in the SEM chamber makes possible to measure in-situ induced sample modification and analysis of changes, be it mechanical, electrical, chemical or any other. All the measurements can be done at the same time, in the same place and under the same conditions.
Extremely precise and time-saving approach uses SEM to navigate the AFM tip to the region of interest, enabling its fast & easy localization.
A nice example can be seen on the video on the left, showing that we were able to guide the AFM tip precisely to such a tiny nanostructure as spider silk wires.
In general, the principal problem while using separate AFM and SEM instrumentation occurs during the sample transfer between both instruments. In this case, it's nearly impossible to navigate the AFM tip to the sample spot previously measured in the SEM.
With LiteScope, you don't have to waste your precious time while trying to find that spot with your AFM tip. You'll leverage our quick & straightforward solution!
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LiteScope Featured in a Breakthrough Study on Electron-Beam-Excited Conductive AFM
A new study has succesfully demonstrated Electron-Beam-Excited Conductive AFM (EBC-AFM) on semiconductive 2D materials – an approach that removes the need for back-contact and time consuming sample manipulation required with traditional conductive AFM. Instead, the SEM’s electron beam generates charge carriers that close the circuit with the AFM tip, making it possible to carry out fast, non-destructive electrical mapping of 2D materials, including full wafers.
ZrO2 Nanoparticles in Fe20Cr Oxide Dispersion-Strengthened Alloys Processed by Laser Powder Bed Fusion
The study investigates oxide nanoparticles (ONPs), specifically ZrO2 nanoparticles in Fe20Cr alloys, produced via laser powder bed fusion (PBF-LB/M), in order to understand how these nanoparticles impact the microstructure and mechanical properties. LiteScope was used for validating Electron Channeling Contrast Imaging (ECCI) findings and to distinguish nanoparticles (ONPs) from pores or preparation artifacts.
AFM-in-SEM LiteScope on the Cover of a Key Study on Diamond-Coated Probes
Researchers have developed a low-temperature plasma process to coat self-sensing AFM probes with boron-doped nanocrystalline diamond, boosting durability and sensitivity. This breakthrough enables precise electrical mapping of micro- and nanostructures in air and vacuum, advancing semiconductor technology.