Значение общенаучных методов познания в нанотехнологии
Nanotechnology allows scientists, engineers and physicians to move to large-scale research in the field of biology and public health at the cellular level and the molecular level. These studies will lead to new biotechnological production processes, as well as to the fundamental changes in the methods of medicine.  The use of the device forming the topological structure of a microchip on the substrate allows for the possibility to create a thumbnail template (using methods to increase the resolution of the projection lithography is proposed to obtain the elements of design rules with no more than 32 nm), the wavelength of ultraviolet radiation λ 193 nm. An example is the lead device "supply" of the body of drugs at the right time (Fig. 2). The device is a self-contained, miniature (solid-state silicon chip), implantable mechanism able to allocate according to a program contained in it is a substance (or substances). Clearly, such a mechanism may serve other functions (diagnostics, chemical analysis, etc.).  In the past few years, scientists have developed a technology rapid mapping of genetic information in DNA and RNA molecules, including the identification of mutations and expression levels. This technology uses a matrix of DNA microarrays, which is similar to the lithographic patterning technology for the industrial production of integrated circuits . Currently, these types of technologies become commercial importance and are used in biotechnology research and production processes. Development of new types of chemical matrices will expand the capabilities of these technologies and apply them in biological information processing apparatus or for analysis of proteins and other biomolecules. Miniaturization of devices based on related analytical processes, including electrophoresis, the reach of such technology and reduce the cost of many important analytical techniques, such as DNA sequencing or a fingerprint.
The article analyzes the technological shifts which took place in the second half of the twentieth and early twenty-first centuries and on the basis of the opportunities provided by the theory of production revolutions the authors thoroughly study the latest production revolution which is denoted as ‘Cybernetic’. There are given some forecasts about its development in the nearest five decades. It is shown that the development of various self-regulating systems will be the main trend of this revolution and the initial transition to the final phase of the Cybernetic Revolution will start in the field of medicine (in some its innovative branches). Then, a convergence of innovative and cognitive technologies will start and this will form a complex of MBNRIC technologies (that is a complex of medical, biological and nanotechnologies, robotics, information and cognitive technologies, named after the initial letters of the names of these technologies). By the example of the development of future medical technologies which also involve achievements in other innovative technologies, the authors give a detailed analysis of the future breakthroughs in terms of the development of self-regulating systems with their growing ability to select optimal modes of functioning as well as of other characteristics of the Cybernetic Revolution (resources and energy saving, miniaturization, and individualization).
In this article approaches to formation of technical requirements and the recommendation to formation of specifications of distributive packages for electronic scientifically-educational information resources (IR) in area of nanotechnology and nanomaterials are considered. For maintenance of the convenient centralized access to these IR, effective possibilities of their ordering and integration, and also methodical support of their use in system for the higher education, it is supposed, that IR should be placed in some hypothetical Internet storehouse which physical realization will be defined. Object of consideration of article is the distributive package, as the unified form of configuration of the content, used at distribution and storage electronic IR in information-educational environments. Application of this structure promotes interoperability of development tools, aggregate and disaggregates packages of content, learning management systems (LMS), storehouses (repositories) of IR. The formulated approach to formation of specifications DP is offered to the open and wide discussion for the scientifically-educational public.
Let G be a semisimple algebraic group whose decomposition into the product of simple components does not contain simple groups of type A, and P⊆G be a parabolic subgroup. Extending the results of Popov , we enumerate all triples (G, P, n) such that (a) there exists an open G-orbit on the multiple flag variety G/P × G/P × . . . × G/P (n factors), (b) the number of G-orbits on the multiple flag variety is finite.
I give the explicit formula for the (set-theoretical) system of Resultants of m+1 homogeneous polynomials in n+1 variables