Small · 2018 · 34 citations · 36 references
EngineeringManufacturing EngineeringMaterials ScienceAdditive ManufacturingMicrofabricationNanotechnology3D PrintingAtomic Force MicroscopyMicrofabrication ProcessesMicromachiningNanomechanicsScanning Probe MicroscopyContact Mode Atomic Force MicroscopyFabricationFabrication TechniquesModal ResponseSilicon MicromachiningTip - Sample InteractionsTip-sample AdhesionTip-sample Interactions
Atomic force microscope (AFM) probes and AFM imaging by extension are the product of exceptionally refined silicon micromachining, but are also restricted by the limitations of these fabrication techniques. Here, the nanoscale additive manufacturing technique direct laser writing is explored as a method to print monolithic cantilevered probes for AFM. Not only are 3D printed probes found to function effectively for AFM, but they also confer several advantages, most notably the ability to image in intermittent contact mode with a bandwidth approximately ten times larger than analogous silicon probes. In addition, the arbitrary structural control afforded by 3D printing is found to enable programming the modal structure of the probe, a capability that can be useful in the context of resonantly amplifying nonlinear tip-sample interactions. Collectively, these results show that 3D printed probes complement those produced using conventional silicon micromachining and open the door to new imaging techniques.
36
Advances in atomic force microscopy
Franz J. Gießibl · Reviews of Modern Physics · 2003 · 2.2K citations · Full text
Dynamic atomic force microscopy methods
Surface Science Reports · 2002 · 2K citations
AFM indentation study of breast cancer cells
Qingsen Li, G. Y. H. Lee, Choon Nam Ong et al. · Biochemical and Biophysical Research Communications · 2008 · 910 citations