Nano Electronics

Nano technology. Illustration: depositphotos.com

Researchers from Tel Aviv University have created an electrical memory only two atoms thick

The research deals with a two-dimensional material, a single atom thick layer of boron and nitrogen atoms arranged in a cyclic hexagonal structure. During the experiment, the researchers managed to break the symmetry of this crystal by artificially assembling
Strontium titanate at atomic resolution. split personality

Crystalline personality disorder

Nano technology. Illustration: shutterstock

Between two worlds: about tiny devices in a big world

From the right: Prof. Shmuel Shafran, Prof. Jacob Klein and Dr. Gilad Silbert. Photo: Weizmann Institute Spokesperson

at the nanopore speed

Illustration of the system in which the experiment was performed: a molecular junction based on a hydrogen molecule hanging as a sort of bridge between two electronic contacts. It is, in fact, the smallest electronic device that can be built today. Illustration: Weizmann Institute

An act in three noises

Chris Robinson, Eigler's Eyes presented at the Nano Israel conference, March 2012

A semiconductor with a thickness of one atom

Optical microscope image of the accumulation of the pNBA molecules on the growing carbon nanotubes (CNTs).

On the way to molecular electronics

Schematic illustration of a molecular junction functioning as a diode created using asymmetric areas of an electrode that allows the current to move in only one direction. [Courtesy: Berkeley Lab and Columbia University]

Single molecule diode

Transparent futuristic phone. Illustration: shutterstock

A new type of semiconductor

Herringbone-shaped ferroelectric materials, as seen in this painted image, may be used as transistors. Illustration: The researchers

Proelectric crystals to upgrade computing capabilities

Graphic image of the Mobius molecule [Copyright: Herges/Nature Chemistry]

Molecules with a triple helix

A device for creating carbon nanotubes

degrees of freedom

A "quantum leak" (in the mind of an artist) exposed inside a gallium-arsenide semiconductor in response to ultrafast laser radiation. [Courtesy of Baxley/JILA]

New semiconductor quasiparticles

Nano Electronics. Photo: shutterstock

Electronic nano-components as a basis for renewable energy

bacterial colony. Photo: shutterstock

Electron transfer mechanism in bacteria

nano tubes. Illustration: shutterstock

A molecular traffic jam makes water move faster through nanotubes

Old-fashioned electronics. Illustration: shutterstock

Super capacitors and the wonders of the double layer

The ultra-thin electronic membrane sticks to a variety of surfaces. (Photo: Peter Rüegg/ETH Zürich)

Ultra-thin, flexible and transparent electronic components

Superconductor - Image: shutterstock

Sensitive, not spontaneous

From the right: Natalie Koritz, Nirit Tzuri, David Rahmilevich, Tamar Yelin, Ran Vardimon (standing), Dr. Oren Tal (sitting) and Marina Klionsky. Electric signal

A molecule in a circle

A scanning electron microscope image of the innovative graphene device utilizing a non-Boolean logic gate (with the university's symbol, UCR, imprinted on top of the graphene surface). The scale of the line at the bottom of the image is XNUMX micron. [Courtesy University of California at Riverside].

Graphene-based logic circuits

Scanning electron microscope photograph of a logic circuit based on 14 nanowires

In the right place, in the right direction

Kasper Naugaard, University of Copenhagen. PR photo

A transistor consisting of a molecular monolayer - graphene

A stream of electrons passing through gold quantum dots anchored on the surface of boron nitride nanotubes.

Is the Silicon Age over? Transistors without semiconductors

Microscopy (AFM) image showing a conducting supramolecular fiber composed of several short fibers. Each point is a separate molecule (the height of the image fiber is 50 nanometers).

The smallest radio in the world / Ed Regis

Microscopy (AFM) image showing a conducting supramolecular fiber composed of several short fibers. Each point is a separate molecule (the height of the image fiber is 50 nanometers).

Electrically conductive plastic nano-fibers

XNUMXD demonstration of a transistor on a single atom. The single phosphorus atom will be placed exactly in the center. Photo: University of New South Wales, Australia

A monoatomic transistor is the perfect transistor

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An innovative molecular switch

Cross section of a solar cell with transparent altacrodes

Innovative electrode for flexible solar cells

A method to control the magnetic properties of the material graphene. Photo: University of Maryland

A new method to control the magnetic properties of graphene

Scanning tunneling macroscopic image of organic furrows. The different colors represent different directions of the spin. Source: CFN

Organic compounds as electrical components

Color rendering of a scanning electron microscope image of a programmable nanoprocessor superimposed on a schematic architecture of a nanoprocessor circuit

The first ever functional nanoprocessor

Diagram (left) and scanning electron microscope images of nanolasers grown directly on a silicon surface

Preparation of nanolasers attached to silicon

Gallium arsenide nanowires on a zinc surface. Photo: University of Copenhagen

Nanowires for solar cells and electronic components

Quantum dots in graphene. Photo: Rice University

Preparation of clean graphene using table sugar

Fast graphene transistor. Illustration: IBM

A world record in graphene-based transistors

Artist's impression of a DNA transition in a graphene nanogate

DNA scanning using graphene nano-nozzles

Cosmic scene with DNA, stars, solvents and atomic circles in oral flow.

Innovative XNUMXD lithography method