Sentences with word «nanoelectronics»

Nanostructures created by force microscopy - based techniques include devices in nanoelectronics, nanophotonics, and nanomagnetism.

Although some of my research focuses on the development of nanoelectronic devices for life science applications (as well as for telecommunications and radio astronomy), most of my research efforts are based on the use of microfluidic chips (MFCs) with molecular biology.

Their findings could have implications for optimising the thermal budget of nanoelectronic devices - which means they could help dissipate the total amount of thermal energy generated by electron currents - or in the production of energy through thermoelectric effects in novel nanomaterials.

An industry consortium called the «Nanoelectronics Research Initiative» is monitoring the ideas.

Postdoctoral researcher Alaa Abdellah and colleagues at the TUM Institute for Nanoelectronics have demonstrated that high - performance gas sensors can be, in effect, sprayed onto flexible plastic substrates.

«Researchers demonstrate size quantization of Dirac fermions in graphene: Characterization of high - quality material reveals important details relevant to next generation nanoelectronic devices.»

The method is uniquely suited for studying viruses and bacteria to facilitate development of medications, or for imaging the structures of novel nanomaterials for applications that range from nanoelectronics to energy technology.

In this episode, journalist Philip Ross discusses his article in the October Scientific American, called «Viral Nanoelectronics,» about wires, batteries and microchips constructed out of viruses.

«The results of this study will help improve the performance of graphene - based nanoelectronic devices such as ultra-high speed transistors and photodetectors» says Professor Dmitry Turchinovich, who led the research at the MPI - P.

I became interested in BME while working at CTF Systems, a company that uses quantum nanoelectronic devices manufactured with conventional microfabrication techniques to manufacture medical imaging (MEG) systems.

Carbyne's electrical properties suggest novel nanoelectronic applications in quantum spin transport and magnetic semiconductors.

«On the way to breaking the terahertz barrier for graphene nanoelectronics.»

«By using the state - of - the - art in silicon nanoelectronics and applying it in unusual ways, we are hoping to have big impact on brain - computer interfaces,» says Shepard.

These include nanoelectronic scaffolds that could become the foundation for engineered tissues that are used to detect and report on a variety of health problems and or atomic - scale memory and logic devices that be used in smartphones.

Nanotheranostics publishes innovative and original basic, translational and clinical research reflecting the fields of nanomedicine, nanoimaging, drug and gene delivery, nanoelectronic biosensors, and other areas.

But a splash of the wet stuff could help make nanoelectronic manufacturing both quicker and cheaper.

Working with Mohawk Valley EDGE, we are in a position to begin construction of infrastructure and site improvements while we continue to market this site globally to the semiconductor and nanoelectronics industry.

Located at SUNY POLY's Marcy Campus, in the heart of New York's Nanoelectronics Manufacturing and R&D Cluster, Marcy Nanocenter provides unique opportunities for collaboration with partners such as:

One application could involve the guided self - assembly of nanoelectronic components into three - dimensional circuits and whole devices.

This program is aimed at assisting Canadian researchers who are making internationally recognized contributions in fields directly relevant to novel nanoelectronic technologies, and who will benefit particularly by the networking and interactions characteristic of all CIAR programs.

As a result, graphene finds a multitude of applications in modern nanoelectronics.

Because of its Lilliputian dimensions, this kind of nanoelectronic detector saves a lot of both space and energy.

Thermal fluids are used to alleviate wear on components and tools and for machining operations like stamping and drilling, medical therapy and diagnosis, biopharmaceuticals, air conditioning, fuel cells, power transmission systems, solar cells, micro - and nanoelectronic mechanical systems and cooling systems for everything from engines to nuclear reactors.

Computing based on photons in nanoelectronic circuits can be then achieved in future computer components.

The newly discovered magnetic properties come on the heels of a previous invention by Levy, so - called «Etch - a-Sketch Nanoelectronics» involving the same material.

The ability to characterize single molecules using highly sensitive nanoelectronics is an exciting prospect in the field of sensors, particularly for neuro - and biosensor applications.

Methods: Two - dimensional, sheet - like materials are of increasing interest for use in filtration, sensing, and nanoelectronics because of their unique properties.

His research specializes in the electronic properties of nanoscale devices, encompassing semiconductor nanoelectronics, quantum devices, ion - implanted plastics as novel conducting materials.

US - based Atom Nanoelectronics was established in 2013 to develop innovative, scalable and high throughput fabrication technologies.

Nanoelectronics research centre imec and global energy company Total, announced today that they have extended their collaboration to significantly increase the energy output of...

This makes it interesting for the next generation nanoelectronic and photoelectronic devices.

Scientists hope to use graphene for everything from nanoelectronics and aircraft de-icers to batteries and bone implants.

He wrote the article, «Viral Nanoelectronics» in our October issue and I called him at his office in Manhattan.

The project has hired several veteran developers with experience ranging from blockchain tech, to enterprise network architecture, to theoretical quantum nanoelectronics.

«The high sensitivity of this transition to scattering at the constriction edges reveals indispensable details about the role of edge scattering in future graphene nanoelectronic devices,» said Slava V. Rotkin, professor of physics and materials science & engineering at Lehigh University and a co-author of the study.

False - colour electron microscope image of the silicon nanoelectronic device which contains the phosphorus atom used for the demonstration of quantum entanglement.

These nanoscale constructions can be customized for applications ranging from studying cell behavior to fabricating nanoelectronics.

Nanomedicine varieties from the medical solicitations of Nano materials and biological devices, to Nanoelectronic biosensors, and even potential future applications of molecular nanotechnology such as biological machineries.

This much simpler thermodynamic approach to the electrical conduction in graphene will allow scientists and engineers not only to better understand but also to improve the performance of graphene - based nanoelectronic devices.

«Since the structures of this material are compatible with silicon technology, we can expect that new non-volatile memory devices with ferroelectric polycrystalline layers of hafnium oxide will be able to be built directly onto silicon in the near future,» says the corresponding author of the study and head of the Laboratory of Functional Materials and Devices for Nanoelectronics, Andrei Zenkevich.

Graphene shows promise for use in nanoelectronics, hydrogen storage, batteries and sensors.

The first successful application of the nanocomposite constructed by Helbich was only recently presented in the context of the ATUMS Graduate Program (Alberta / TUM International Graduate School for Functional Hybrid Materials): Alina Lyuleeva and Prof. Paolo Lugli from the Institute of Nanoelectronics at TU Munich, in collaboration with Helbich and Rieger, succeeded in building a photodetector based on these silicon nanosheets.

If a similar approach can be used in thermal transport, that could facilitate development of more efficient thermoelectric and nanoelectronic devices, improved thermal barrier coatings, and new materials with ultralow thermal conductivity.

Those efforts will target the most cutting - edge areas of nanoelectronics, including advanced lithography, 3D packaging, and metrology technologies that are critical to enabling the smaller, faster, and more powerful computer chips driving nearly every industry.