We demonstrate how to configure and reconfigure a nanoelectronic nonlinear network to a universal set of logic gates by applying sequences of voltage pulses to the edges of the network. The nanoelectronic device is designed to consist of a self-assembled network of nanoparticles connected by two-terminal linker elements with hysteretic behaviour, allowing voltage-controlled switching between a ...

We report the integration of a complex biological system and a nanoelectronic device, demonstrating that both components retain their functionality while interacting with each other. As the biological system, we use the cell membrane of Halobacterium salinarum. As the nanoelectronic device, we use a nanotube network transistor, which incorporates many individual nanotubes in such a way that ent...

Cooling nanoelectronic structures to millikelvin temperatures presents extreme challenges in maintaining thermal contact between the electrons in the device and an external cold bath. It is typically found that when nanoscale devices are cooled to ∼ 10 mK the electrons are significantly overheated. Here we report the cooling of electrons in nanoelectronic Coulomb blockade thermometers below 4 m...

Nanoelectronic devices based on nanomaterials such as nanowires, carbon nanotubes, graphene, and other 2D nanomaterials offer extremely large surface-to-volume ratios, high carrier mobility, low power consumption, and high compatibility for integration with modern electronic technologies. These distinct advantages promise great potential for nanoelectronic devices as next generation chemical an...

The last 40 years have seen an exponential increase in the number of transistors per processor. Along with this increase has been an exponential increase in processor performance. However, now that CMOS scaling has reached the deep submicron range, fundamental physical properties are limiting the further scaling of this technology. Nanoelectronic devices have recently been developed as one poss...

Continuing advances in the miniaturization of electron devices have made possible the fabrication of ~~anoelectronic devices with feature sizes in the 1-lOOnm range. However, it is widely believed that conventional integrated circuit design techniques will become imp]-actical, due t o the small size and the low current carrying capacity of nanostructured devices. Prc~posals which envision novel...

The advent of nanoelectronics originates (1) challenges in how to configure or “teach” self-assembled systems and (2) opportunities to integrate memory, digital and analog processing into extremely small systems for sensing and/or embedded computing. This paper describes initial ideas towards nanoelectronic adaptive systems that rely on ultra dense array-like structures to implement fault-toler...