Nanotech

Prof. Jong-Soo Lee, DGIST, succeeded in developing green-emitting Cd-Free quantum dot synthesis technology with high color reproduction capability

Scientists in Korea make hand-drawn and flexible pressure sensors that can control a phone from underwater.

The Targeted Neuronal Network Regeneration research group from the Department of Robotics Engineering at DGIST was selected

Researchers from the Daegu Gyeongbuk Institute of Science and Technology have developed a faster and more reliable way to print flexible digital devices.

Combining two magnetic effects can manipulate the magnetic behaviours of a device, offering a novel opportunity for the next generation IT technologies.

Testing a large library of compounds reveals an easy-to-make lipid that can carry genetic code into the lung to treat disease.

Korea’s DGIST collaborates for mass production of semiconductor-based optical switches.

Researchers have found a way to enhance radiation therapy using novel iodine nanoparticles.

For a timely respond to the government-level strategies on K-Semiconductor development, DGIST launched the Institute of Next-generation Semiconductor convergence Technology(INST).

Scientists used digital circuitry to manipulate and store label-free matters in order to study their unique characteristics

Perovskite colloidal quantum dots (Pe-CQDs) are highly promising nanocrystals for optoelectronic applications. However, the size of the crystals should ideally be equal to ensure a consistent energy landscape. In a recent study, scientists clarified the relationship between differences in particle size—polydispersity—and the optoelectronic characteristics of Pe-CQDs. They showed that using equally sized, or ‘monodisperse,’ quantum dots results in markedly better performance in Pe-CQD solar cells, paving the way for future optoelectronic devices.

A tiny device incorporates a compound made from starch and baking soda to harvest energy from movement.

High-resolution genome structural analyses combined with large-scale simulations show the arrangements of the genome’s spool-like structures affecting gene expression.

DGIST scientists have found a novel way to control magnetic spins in a localized space.

The trick to extremely thin supercapacitors with improved performance is spraying graphene ink at an angle.

Printing electronic circuits could soon get easier and cheaper.

Scientists develop high performing electrocatalyst to synthesize ammonia in an effort to replace conventional eco-unfriendly methods

Researchers at Kanazawa University report in Review of Scientific Instruments a newly developed atomic force microscopy approach for imaging biological samples and processes. The method offers higher frame rates and less disturbance of samples.

The University of Tokyo researchers use information theory to show that the accepted biochemical model of bacterial chemical sensing is mathematically equivalent to the optimal solution, with implications for microbiology and robotics

Researchers from DGIST have now found a way to keep living, wet cells viable in an ultra-high-vacuum environment, using graphene, allowing—like never before—accurate high-resolution visualization of the undistorted molecular structure and distribution of lipids in cell membranes. This could enhance our bioimaging abilities considerably, improving our understanding of mechanisms underlying complex diseases such as cancers and Alzheimer’s

Researchers at The University of Tokyo discover a new law about how the complex network of phase-separated structures grows with time, which may lead to more efficient batteries and industrial catalysts

A surprisingly simple method improves ‘drop casting’ fabrication of tiled nanosheets that could be used in next-generation electronic devices. All you need is a pipette and a hotplate.

An atomic switch is bringing us closer to highly effective solid-state batteries for electric vehicles.

Diamond is the hardest material in nature. But out of many expectations, it also has great potential as an excellent electronic material. A joint research team led by City University of Hong Kong (CityU) has demonstrated for the first time the large, uniform tensile elastic straining of microfabricated diamond arrays through the nanomechanical approach. Their findings have shown the potential of strained diamonds as prime candidates for advanced functional devices in microelectronics, photonics, and quantum information technologies.

A joint research led by City University of Hong Kong (CityU) has built an ultralow-power consumption artificial visual system to mimic the human brain, which successfully performed data-intensive cognitive tasks. Their experiment results could provide a promising device system for the next generation of artificial intelligence (AI) applications.

Scientists have found a way to control an interaction between quantum dots that could lead to more efficient solar cells.

A repetitive DNA sequence that causes health risks when it malfunctions can now be watched inside living cells using a synthetic tool

A recent study, affiliated with South Korea's Ulsan National Institute of Science and Technology (UNIST) has developed a tiny micro supercapacitor (MSC), being small as the width of a person's fingerprint.

Measuring the temperature of objects at a nanometer-scale has been a long challenge, especially in living biological samples, because of the lack of precise and reliable nanothermometers. An international team of researchers has realized a quantum technology to probe temperature on a nanometer-scale, and have observed a ‘fever’ in tiny nematode worms under pharmacological treatment. This strengthens the connection between quantum sensing and biology and ushers in novel thermal imaging technologies in biomedical research.