Self-sharpening tip integrated on micro cantilevers with self-exciting piezoelectric sensor for parallel atomic force microscopy
P.-F. Indermühle, G. Schürmann, G.-A. Racine, Nico F. de Rooij
Abstract
P.-F. Indermühle, G. Schürmann, G.-A. Racine, Nico F. de Rooij
Abstract
Arrays of cantilevers with integrated self-sharpening tips and self-exciting piezoelectric sensors have been fabricated using monocrystalline silicon micromachining. During the fabrication process, tips are first formed with a wet etching technique allowing a good homogeneity of tip shape over a whole wafer and then protected with a local thick silicon dioxide layer. Single cantilevers have been used to achieve atomic force microscopy images of grids with periods of 0.25, 1, and 5 μm and with height differences of 100, 15, and 180 nm, respectively.
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Arrays of cantilevers with integrated self-sharpening tips and self-exciting piezoelectric sensors have been fabricated using monocrystalline silicon micromachining. During the fabrication process, tips are first formed with a wet etching technique allowing a good homogeneity of tip shape over a whole wafer and then protected with a local thick silicon dioxide layer. Single cantilevers have been used to achieve atomic force microscopy images of grids with periods of 0.25, 1, and 5 μm and with height differences of 100, 15, and 180 nm, respectively.
Key concepts: Cantilever, Materials science, Wafer, Surface micromachining, Silicon, Etching (microfabrication), Piezoelectricity, Sharpening