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Electronic components and interconnects can be simultaneously synthesized and integrated through the phase-patterned growth of two-dimensional molybdenum ditelluride.
A hybrid analogue–digital computing system based on memristive devices is capable of solving classic control problems with potentially a lower energy consumption and higher speed than fully digital systems.
Reliable memristive devices in which switching is based solely on electronic effects can be created from amorphous silicon by doping with oxygen and nitrogen.
A nanolithography technique that uses a heated scanning probe tip can precisely pattern metal electrodes on two-dimensional semiconductors, creating field-effect transistors with exceptional performance.
The compressive buckling of lithographically defined, two-dimensional patterns can create three-dimensional piezoelectric microsystems with a range of potential applications.
A wireless, low-power optoelectronic platform, which is based on micro-LEDs, can provide multimodal programmable control over optogenetic stimulation parameters.
Integrating magnetoresistive random access memory with advanced fin field-effect transistor technology provides a route towards energy-efficient computing.
Through some unconventional approaches to improving transistor density and performance, the latest logic technology from Intel delivers 100 million transistors per square millimetre — and in the process, reaffirms Moore’s law.