In this paper, the atomic force microscope (AFM) is used as a powerful technique for the machining and imaging of a nonconducting, thick, photoresist. A systematic approach is adopted to determine the minimum number of passes of the AFM probe tip and the optimized maximum force that could be applied by a Si cantilever on a photoresist to achieve the desired modifications. Linear relationships are established for the number of passes to achieve the corresponding attainable depth. V-grooves are fabricated in the photoresist using high normal forces of 5 and with a transverse speed of . With a higher manoeuvring speed of , a window is created in the photoresist without significant irregular undulation at its base. A regular window of with depth 60 nm and a line window of width and depth 12 nm are successfully fabricated in silicon using the photoresist machined pattern as a mask for wet preferential Si etching.
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Li et al. (1997) studied this question.
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