Dip-pen nanolithography (DPN) is a nanofabrication technique that can be used to directly
write molecular patterns on substrates with high resolution and registration. Over the past …

The ability to tailor the chemical composition and structure of a surface on the 1–100 nm
length scale is important to researchers studying topics ranging from electronic conduction …

Although a molecular monolayer is only a few nanometers thick it can completely change
the properties of a surface. Molecular monolayers can be readily prepared using the …

Printing technologies have undergone signficant development because they are an enabler
in science and engineering research; they also have significant practical applications in …

Arrays of antibodies with well-defined feature size and spacing are necessary for developing
highly sensitive and selective immunoassays to detect macromolecules in complex …

We demonstrate that nanolithography can be performed using a heated atomic force
microscope (AFM) cantilever tip to control the deposition of a solid organic “ink.” The ink …

Bio-nanopatterning of surfaces is a very active interdisciplinary field of research at the
interface between biotechnology and nanotechnology. Precise patterning of biomolecules …

Dip‐pen nanolithography (DPN) is an atomic force microscopy (AFM)‐based lithography
technique, which has the ability to fabricate patterns with a feature size down to …

We report on the fabrication of planar surfaces bearing nanoscale chemical patterns,
obtained by combining electron beam lithography and gas-phase silanation, offering an …

Various methods for the patterned assembly of metal nanoparticles have been developed in
order to harness their unique electrical and optical properties for device applications. This …