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Nanomechanical devices have the potential to probe biological processes at the level of single cells and individual molecules. This article reviews the issues that will be critical to the success of next-generation mechanical biosensors.
Statistical analysis of nanoparticle delivery shows that cells take up nanoparticles randomly and redistribute them to their daughter cells in a biased way.
A statistical model based on a quantitative structure–activity relationship accurately predicts the cytotoxicity of various metal oxide nanoparticles, thus offering a way to rapidly screen nanomaterials and prioritize testing.
The presence of a large bandgap means that a single layer of molybdenum disulphide can be used to make field-effect transistors with high on/off ratios and reasonably high mobilities.
Recyclable membranes that are capable of separating nanoparticles of different sizes can be prepared from supramolecular assemblies that are held together by non-covalent bonds.
Changing the configuration of block copolymer coatings with the aim of circumventing the body's defence system instead triggers the immune system differently.
The formation of an atomic-scale metal filament at the end of an atomic force microscope will pave the way for higher-resolution imaging by AFMs with functionalized tips.
Mechanical vibrations in piezoelectric structures induced by green laser light can efficiently produce electromagnetic radiation at terahertz frequencies.