A team of Northern Illinois University scientists, with a major role played by NIU Ph.D. students, has discovered a new, convenient and inexpensive way to make high performance hydrogen sensors using palladium nanowires.
Tissue engineers seek to develop functioning substitutes for damaged tissues and organs. Generally, this means seeding cells onto 3-dimensional porous scaffolds made of biomaterials, which provide mechanical support and instructive cues for the developing engineered tissue. Now it's time to go to the next level, and make complex tissues that can really do things - contract, release growth factors, conduct electrical signals and more. Things our own cells and tissues do.
The conference Nanomechanical Testing in Materials Research and Development from October 9-14, 2001 in Lanzarote, Canary Islands, Spain, will bring together all people working in the field of nano- and micromechanical testing in materials research. It will provide a forum for discussion of the latest activities in application of nano- and micromechanical testing methods.
Using a highly sophisticated atomic-scale imaging tool on a sea creature's tooth, two Northwestern University researchers have peeled away some of the mystery of organic/inorganic interfaces that are at the heart of tooth and bone structure.
This conference is organized with the intention of again providing a forum for continued discussion on the latest developments in two of the most critical high-tech fields, i.e., Ultra Large Scale Integrated Circuits (ULSIC) and Thin Film Transistor (TFT). It is aimed at the exchange of state-of-the-art information among those involved in research, development, and production of semiconductor materials, processes, and devices.
Scientists at Helmholtz-Zentrum Berlin fuer Materialien und Energie (HZB) and the Technische Universitaet Berlin (TUB) now present a method that takes us a good step towards producing a "molecular movie". They can record two pictures at such a short time interval that it will soon be possible to observe molecules and nanostructures in real time.
The physical length of an ordinary laser cannot be less than one half of the wavelength of its light, which limits its application in many industries. Now the Spaser, a new invention developed in part by Tel Aviv University, can be as small as needed to fuel nanotechnologies of the future.
Fifty-one years after Richard Feynman envisioned nanoscience in his famous address, 'Plenty of Room at the Bottom', four extraordinary researchers joined in a roundtable discussion of the future of nanoscience.
Separating molecules is an important part of many manufacturing and testing processes, including pharmaceutical production and some biomedical tests. One way of carrying out such separation is by using nanofilters - materials with holes of a precisely controlled tiny diameter, to allow molecules up to that size to pass through while blocking any that are larger. But a new system devised by researchers at MIT could add an important new capability: a way to selectively filter out molecules of the same size that have different chemical properties.
Frank Burnett, Emeritus Professor of Science Communication at the University of the West of England, has written a concise 26 page Guide designed to help scientists, engineers and technologists develop effective, attention-grabbing ways of communicating what they do and why they do it to public audiences.
Nanotechnologien und Neue Materialien sind Innovationstreiber fuer die Entwicklung intelligenter und multifunktionaler Verpackungen. Das Anwendungsspektrum reicht von verbesserter Barriere- und Schutzfunktion ueber neuartige Sicherheitsmerkmale fuer den Faelschungsschutz bis hin zu Smart Labels fuer intelligente Verpackungen der Zukunft.