Materials science researchers and lab technicians
Setting up a new AFM indentation experiment and needing a step-by-step calibration checklist.
The AFM indentation mind map template is a structured reference for researchers and engineers performing atomic force microscopy (AFM) indentation experiments. It covers 41 nodes across four main branches: Calibration, Oliver & Pharr method, Cantilever fabrication, and AFM machine. The calibration branch alone includes 12 sub-nodes detailing tip area, sensitivity, and stiffness calibration procedures, with specific checks like 'Repeatability' (Intrinsic and Extrinsic) and 'Accuracy check' methods such as 'Thermal vibration method'. This template serves as a cheat sheet for ensuring accurate and reproducible nanoindentation measurements. It also lists common AFM machines like 'XE-100 machine' and 'JPK machine', making it a practical guide for lab setup and data analysis.
å©çšèŠçŽSetting up a new AFM indentation experiment and needing a step-by-step calibration checklist.
Comparing different AFM machines (XE-100 vs. JPK) for indentation measurements.
Training new students on the Oliver & Pharr method and cantilever selection.
Launch the template in Xmind to navigate the structured branches covering Calibration, Oliver & Pharr methods, and AFM machine specifications.
Expand the sub-nodes to input your specific calibration data, cantilever fabrication details, and experimental notes directly into the map.
Collapse or expand branches to focus on specific procedures before exporting your finalized experiment guide as a PDF or image for sharing.
The template covers calibration procedures (tip area, sensitivity, stiffness), the Oliver & Pharr method, cantilever fabrication types, and common AFM machines like XE-100 and JPK.
Open the .xmind file in Xmind, then follow the calibration branch: start with tip area calibration, proceed to sensitivity and stiffness calibration, and perform repeatability and accuracy checks as outlined.
Yes, the template is fully editable. You can add your own calibration data, modify node names, or expand branches to include specific experimental parameters.
It is a standard technique for analyzing load-displacement curves to determine hardness and elastic modulus from indentation experiments.
Absolutely. You can add details about probe materials, geometries, or stiffness values relevant to your specific AFM setup.
Use it when planning or executing AFM indentation experiments, especially for calibration checks, method selection, or troubleshooting measurement reproducibility.
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