nano-tech

Measurement of heat transfer in a clean sample of graphene. Left: optical image of the graphene sample. Right: The thermal imaging reveals a chain of rings that is the boundary of a unique process of heat transfer occurring in the sample.

warm, diffuse

peanuts. Source: Stacy Spensley / flickr.

A new anti-allergy bullet

artificial intelligence. Illustration from pixabay.com

Artificial intelligence based on spintronics 

Cells can take up polymeric nanoparticles containing quantum dots coated with phospholipid polymer and cell-penetrating peptides. [Courtesy of Kazuhiko Ishihara, Weixin Chen, Yihua Liu, Yuriko Tsukamoto and Yuuki Inoue]

The images of the internal walls of cells

A copper strip that has been "nano-sculpted". Photo: Kyle University

Metal connection to all types of surfaces

The lightest knit in the world. Photo: Boeing PR

The world's lightest metal inspired by human bone

DNA replication using RNA. Illustration: shutterstock

An innovative method for DNA replication

A "magnifying glass" for atoms. Image: University of Cambridge

Magnifying glass for viewing atoms  

Myxine fish. Photo: f Andra Zommers and Douglas Fudge, in: Will hagfish yield the fibers of the future?, PNAS, 2016.

Will a deep-sea fish affect the future of the textile industry?

Electronic paper with a thickness of less than one micrometer that includes gold, silver and PET plastic. [Courtesy: Mats Tiborn]

Electronic paper with the whole rainbow of colors

molecules. Source: kennysarmy / flickr.

The mysteries of the molecule

A molecular car. Illustration: Nobel Prize Committee for Chemistry 2016

Who will drive a molecular car? - How molecules become machines - Part I

Dr. Oren Tal and Dr. Tamar Yelin. Electrical conduction through molecular junctions. Source: Weizmann Institute magazine.

the upper limit

Pigeon. From Wikipedia

From the lotus to the wings of the pigeon - water and dirt repellent surfaces

Self-repairing coated fabrics. From left to right: fabric with a hole in the center, wet fabric and patched with a drop of water, fabric after self-repair. [Courtesy: Demirel Lab / Penn State]

Fabrics that repair themselves and neutralize toxins

A metamaterial developed by researchers from Tel Aviv University and the Netherlands. Screenshot from the researchers' video

A metamaterial that can be produced to fit any pattern

Nano robots treat a cancer cell. Illustration: shutterstock

Nanomachines for disease diagnosis

Prof. Richard Feynman's lecture, "There's a lot of space down there", is encoded on a nanometer "hard drive". Photo: Delft University

The smallest hard drive in the world

A silver nanostructure in the shape of a "bow tie", with a quantum dot trapped in its center (red arrow). Photographed using an electron microscope

Nano bow ties

Diagnosis of infectious diseases. Illustration: shutterstock

Disease detector

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

On the way to molecular electronics

A mantis-type mantis in the lab at UC RIVERSIDE

Extra strong materials inspired by snails

A method for preparing drug carriers and their nanometric structure. The capture and release of the drug depends on the temperature surrounding the carrier system. [Courtesy: Igor Potemkin/Scientific Reports]

Nanocapsules for the precise transport of drugs

Scanning electron micrograph of nano bricks of the material nacre Credit: F. Heinemann; Wikimedia Creative Commons License.

Creating weak points to strengthen materials

A flexible electronic material that repairs itself. PHOTO FROM YOUTUBE - COURTESY OF PENN STATE UNIVERSITY

A flexible electronic material that repairs itself

Superconducting strips on graphene surfaces. Figure: Center for Nanotechnology in London

Nanotechnology: a maturing science

Disassemble the joints

An illustration of the DNA-based molecular junction that the researchers used to create a diode, which could be used as an electronic component in nanometer electrical circuits in the future.

Researchers have created a diode that is the size of one molecule

These tiny polymer scaffolds include channels 100 micrometers wide, about the width of a human hair. When live cells are added to the content, the channels serve as artificial blood vessels. By mimicking human tissues of organs such as liver and heart, these scaffolds provide an innovative method for testing new drugs with the aim of reducing their dangerous side effects. [Courtesy: Tyler Irving/Boyang Zhang/Kevin Soobrian]

Engineers have succeeded in growing XNUMXD heart and liver tissues

Tire friction marks on road. Illustration: shutterstock

Sticks and slides

XNUMXD printer for the production of nanometer systems. AVBA PR photo

A XNUMXD nanometer printer for the production of extremely tiny structures

Prof. Nir Tesler. Photo: Technion spokespeople

Dramatic improvement in the efficiency of solar cells

A new material has been developed that is quickly absorbed into the cells and which consists of crystalline sheets (nanosurfaces) trapped inside lipoprotein nanoparticles that allows a stable and constant emission of bright light. [Courtesy: Sung Jun Lim, University of Illinois]

Lipoprotein nanosurfaces for biological imaging