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The complex electronic properties of alkali-doped fullerides derive from the interplay between competing interactions. Fine control of the doping levels and thickness of fulleride films makes it possible to tune relevant parameters.
Building blocks of DNA self-assemble into nanostructures in a kinetically controlled way. The versatile molecular system can be programmed to perform diverse dynamic functions.
The biologically inspired toolbox is well and truly open. From three-dimensional DNA assemblies to active catalysts inside the confines of a virus — biomolecules are finding a second, unnatural life.
When a wire coat hanger is bent it becomes mechanically stronger because of the imperfections that are introduced. In situ electron microscopy now shows that small metal structures are strengthened not by adding but by removing imperfections.
The observation of long relaxation times and high-fidelity preparation promote the spin of a hole in a semiconductor quantum dot to the best position to be a contender for the role of a solid-state qubit.
The adhesive proteins secreted by mussels are the inspiration behind a versatile approach to the surface modification of a wide range of inorganic and organic materials, resulting in the fabrication of multifunctional coatings for a variety of applications.
The structure of Nafion, the polymer electrolyte membrane used in some fuel cells, has been extensively debated over recent decades. Now, a model reveals the nanoscale arrangement that could explain the excellent transport properties of the material.
Unearthed after millions of years, diamondoid molecules are being studied for their possible use in single-molecule transistors, for field-emission displays and for their downright fascinating electronic properties.
In a major departure from their humble origins as ultrathin monolayers, optical metamaterials have now advanced to three-dimensional bulk media exhibiting both electric and magnetic activity.
