Thank you for visiting nature.com. You are using a browser version with limited support for CSS. To obtain
the best experience, we recommend you use a more up to date browser (or turn off compatibility mode in
Internet Explorer). In the meantime, to ensure continued support, we are displaying the site without styles
and JavaScript.
New first-principles calculations reveal the range of atomic arrangements underlying the average crystallographic structure of a perovskite oxide, PZT. This work opens the door to understanding the exceptional physical behaviour of PZT and related systems.
The electronic properties of carbon nanotubes are predicted to be very sensitive to their structure. Combining high-resolution electron microscopy with electrical transport provides both confirmation of this and new insights into the transport mechanisms.
The ability to tune the properties of disordered materials is reaching new levels. Experiments with colloidal systems, combined with theoretical predictions, may lead to the design of novel soft materials and to a deeper understanding of the glass and gel states of matter.
Why use a lens to build a light microscope when you can see better without one? State-of-the-art optical microscopy techniques that avoid the usual limitations associated with lenses are making waves in unexpected areas of materials science.
The structure of glass is not as untidy as one would think. It has some degree of order intermediate between a liquid and a crystal. A new method allows control of this intermediate range order and improves our understanding of glass structures.
A century-old puzzle on the apparent contradiction that some materials disorder as they are cooled gains universality following new observations of closed-loop phase behaviour in a block-copolymer system.
A transmission electron microscope capable of identifying individual atoms or defects in a crystal lattice has much to offer materials scientists. It has now been used to study the early stages of nanocluster nucleation and growth in semiconductors.
The discovery that the electronic conductivity of LiFePO4 can be increased by eight orders of magnitude may have a profound impact on the next generation of lithium-ion batteries.
Kagomé lattices are the most geometrically frustrated magnetic systems. But their magnetic properties remain poorly characterized because they are difficult to synthesize. A new versatile synthetic route to Kagomé lattices yields a spin-frustrated material from paramagnetic building blocks.
Looking through a window on a rainy day may generate feelings other than melancholy. Curiosity, for example: isn't it remarkable that water droplets stick to the pane rather than sliding down?
Lenses used in electron microscopy have aberrations that limit their resolution. Successful correction of spherical aberration is now possible, opening the door to three-dimensional, sub-ångström imaging of atomic arrangements.
For nanotechnology to fulfil its promises, devices have to control events at the nanoscale as well as link to the macroscopic world. An organized network of nanoparticles that behaves as a sensor is one example of such a system.
As Benjamin Braddock was told in the film The Graduate “plastics” are big business. But with a limited palette of polymers to choose from, the industry has long sought to combine desirable properties from several polymers into new blends.
How does plastic deformation of polycrystalline materials with grain sizes less than 100 nm look at the atomic scale? A large-scale molecular dynamics simulation of nanocrystalline aluminium reveals some surprising behaviour.
Atomic-scale engineering turns silicon into a material in which electronics and photonics can be merged, thus leading to microphotonic integrated circuits.
For a quarter of a century, barcodes have been used in the macroscopic world to tag goods in supermarkets. Can the same idea be used to track molecules in microbiology?
