Analytical Equipment for Nanoindustry Enters Production in Moscow
OREANDA-NEWS. January 31, 2012.
ATC’s new manufacturing facility has been outfitted with the latest equipment, giving it the capability of making instrument components with ultrahigh precision, to within ten nanometers. With expanded capacity, the company can double production and increase sales to 70 million rubles in 2012.
The FemtoScan microscopes that will be manufactured under the project carry out more than 50 different scanning probe procedures. The instrument is suited to research in diverse fields, among them, chemistry, physics, biology, medicine, and materials science.
“Nanotechnology is the quintessence of intellectual activity. To our good fortune, we have been able to establish a fine young team, mostly graduates of
“One of RUSNANO’s basic investment principles has been that full-fledged development of a nanoindustry in our country depends on this class of Russian analytical equipment. We are already seeing considerable demand for scanning probe microscopes and atomic balances from Russian scientific institutions and research laboratories as well as foreign scientific centers,” noted RUSNANO Managing Director Georgy Kolpachev.
FemtoScan scanning probe microscope
This multifunctional scanning probe microscope may be fully controlled through the Internet or controlled locally.
The compact instrument has very powerful software support that permits remote access through the Internet. The software’s open architecture platform provides flexibility for a wide array of research experiments and surface control tests.
With the FemtoScan it is possible to see objects of submicroscopic size and obtain atomic or molecular resolution on the surface of crystals and films. The microscope can scan the same surface of a sample time and time again with various magnifications to facilitate study of the most minuscule details.
Diagram of the mechanical system of the scanning probe microscope
BioScan atomic balance
This is a multifunctional analyzer of chemical and biological substances.
In theory, the technology of cantilevered sensors enables measurement of mass with the precision of 10-
Igor V. Yaminsky, Doctor of Physics and Mathematics; professor,
We decided to build the first commercial microscope in 1987. We brought together a temporary project group and set ourselves a goal: to transform the prototype we had into a working instrument. Within two months, we had created the fully functional scanning tunneling microscope and started production. We sold 35 microscopes between 1987 and 1993. It was a wonderful time: We didn’t know a thing about commerce or running a business. We simply made microscopes and companies bought them. We didn’t have any advertising, no one marketed. We all thought that was how things were supposed to be. Then suddenly in 1992, everything changed and there was no money for science. For the next eight years, it was as if we were suspended in a murky pause; slowly we moved forward. We had begun developing a new microscope in 1992 and we finished in 1996. We incorporated into it a principally new mechanism, electronics combined with software support. On April 29, 1996, we looked through our microscope and saw atoms. Today we are producing a principally new microscope, with very high resolution and rapid response. Development took nine months. On December 12, 2011, we produced our first ultrafast and ultraprecise scanning probe microscope, FemtoScan-2.
We name all our microscopes FemtoScan. Femto means a factor of 10-15, the limit at which modern microscopes can operate. FemtoScan can measure current to 10-15 amperes, force to the level of 10-15 newtons, or capacitance to 10-15 farads. You could call the FemtoScan a nanomicroscope because 10-15 = 10-9 x 10-6. The distinguishing features of the FemtoScan-2, which we have just achieved, are the unlimited size of its frame, —to a million readings per second—and its ultraprecise positioning, and of course much more.
High Technology and the Internet
Advanced
Full control over the instrument using the Internet
Access for multiple users
Data exchange in protected form
Management of a database of experiments
Support for video conferences and instantaneous exchange of communications
Integration with the web server
FemtoScan Online has gone through numerous modifications in recent years. Today it is one of the most successful programs in microscopy.
Microscope–the champion
The importance of the microscope to science and scientific advances may be glimpsed in the history of Nobel Prizes. More Nobel awards have been made for microscopes than for any other advance: three prizes for four developments to five individuals. The first was the Nobel Prize in Chemistry in 1925 given to Austrian-German scientist Richard Zsigmondy for discoveries made with an immersion ultramicroscope that Dr. Zsigmondy had invented. In 1953 the Nobel Prize in Physics went to the Dutch scientist Fritz Zernike “for his demonstration of the phase contrast method, especially for his invention of the phase contrast microscope." And finally, in 1986 the Nobel Prize in Physics was awarded to three scientists—the creator of the first electronic microscope, Ernst Ruska, and inventors of the scanning tunneling microscope, Gerd Binnig and
Heinrich Rohrer. Binnig and Rohrer received the award five years after making the first STM.
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