Latest Molecular Foundry Stories
Biomolecular imaging can reveal a great deal of information about the inner workings of cells and one of the most attractive targets for imaging are glycans â€“ sugars that are ubiquitous to living organisms and abundant on cell surfaces.
In typical plasmonic devices, electromagnetic waves crowd into tiny metal structures, concentrating energy into nanoscale dimensions.
Scientists at the U.S. Department of Energy's Lawrence Berkeley National Laboratory (Berkeley Lab) have coaxed polymers to braid themselves into wispy nanoscale ropes that approach the structural complexity of biological materials.
Many futurists envision a world in which polymer membranes with molecular-sized channels are used to capture carbon, produce solar-based fuels, or desalinate sea water, among many other functions.
Scientists with the Lawrence Berkeley National Laboratory (Berkeley Lab) have designed an electrical link to living cells engineered to shuttle electrons across a cellâ€™s membrane to an external acceptor along a well-defined path.
Scientists with the Molecular Foundry, a US Department of Energy User Facility located at Berkeley Lab, have developed nano-sized cantilevers whose gentle touch could help discern the workings of living cells and other soft materials in their natural, liquid environment.
Two-dimensional, â€œsheet-likeâ€ nanostructures are commonly employed in biological systems such as cell membranes, and their unique properties have inspired interest in materials such as graphene.
Composites are combinations of materials that produce properties inaccessible in any one material.
For the first time, the widely used molecular synthesis technique known as click chemistry has been safely applied to a living organism.
Looking sharp and looking for light - Berkeley Lab researchers have engineered a new class of bowtie-shaped devices that capture, filter and steer light at the nanoscale.
- To befool; deceive; balk; jilt.
- An illusion; a trick; a cheat.