Minimization of helices opens a door to impose novel functions derived from the
dimensional shrinkage of optical, mechanical and electronic devices. Glancing angle …

Porous thin films have been fabricated by physical vapor deposition at an extremely oblique
angle of incidence (85°). This deposition technique, called glancing angle deposition …

In this paper, we introduce a simple single‐step method for creating spatially graded helical
nanostructured thin films. The films mimic some of the interesting polarization and coloration …

This book provides a highly practical treatment of Glancing Angle Deposition (GLAD), a thin
film fabrication technology optimized to produce precise nanostructures from a wide range of …

Chirality is one of the essential features in our living life and exerts a wide variety of
applications in enantio-adsorption/separation. However, the mechanism between chirality …

Helical nanomaterials represent an emerging group of nanostructures with unique spiral
geometry as well as multiple functionalities owing to their enriched physical and chemical …

As one of the most important and land-mark structures found in nature, a double helix
consists of two congruent single helices with the same axis or a translation along the axis …

Artificial chiral structures have potential applications in the field of enantioselective signal
sensing. Advanced nanofabrication methods enable a large diversity in geometric structures …

The utility of helical structures in driving motion of microorganisms and plants has inspired
efforts to develop synthetic stimuli‐responsive helical architectures for self‐motile and shape …

We report the fabrication of thin films perforated by high aspect ratio helical or chevron pores
by an extension of the glancing angle deposition (GLAD) technique. The perforated films …