CYBERSECURITY IN THE CONTEXT OF A NEW TECHNOLOGICAL REVOLUTION AND AN EXPERIENCE OF BRICS STATES

Author(s):  
ALEXANDR KARTSKHIYA ◽  
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The article considers the influence of disruptive technologies as an impact factor of a modern system of cybersecurity and scientific and technological development (STI-Science, Technology and Innovation) in the conditions of the fourth industrial revolution, taking into account the experience of the BRICS countries, as well as the development of mechanisms for international scientific and technical cooperation within the BRICS. The author's finding of an inevitable development of cooperation within the framework of the BRICS group in order to improve information infrastructure and cybersecurity, ivolve national legal systems and creation of impact factors to create wide prospects for cooperation in the information sphere within the BRICS group and on a global scale. The state of information and cybersecurity will largely depend on the effectiveness of the activities of international organizations, associations of states and regional international structures. At the same time, the level of security in the information sphere, the Internet cyberspace has a direct effect on vulnerability within the national security of each BRICS member country and the entire association as a whole.

2021 ◽  
pp. 490-497
Author(s):  
Konstantin Konstantinovich Kolin

The article shows that for the development of science, technology, and education, it is necessary to create an adequate information and analytical system to support the adoption of effective management decisions. One of the main difficulties of this task is that it should be solved comprehensively, and not in fragments, as it is done at present. After all, in the structure of the Russian Government there is no body for centralized management of the solution of this issue. Therefore, many state programs in this area are not coordinated with each other and are not supported by the necessary personnel, standards, and legal and information provision. All this will have to be created anew in the context of increasing attempts to isolate Russia economically and politically by the United States and its supporters in the countries of the European Union (EU). The author suggests using this geopolitical situation to review the strategy and tactics of Russia's scientific and technological development, making it a priority to increase the efficiency of using its own intellectual potential and expand scientific and technological cooperation with other countries. First of all, it should be the BRICS countries, the Eurasian Economic Union, as well as China, India, Iran and South Korea, which also face acute problems of scientific and technological development.


Author(s):  
E.B. LENCHUK ◽  

The article deals with the modern processes of changing the technological basis of the world economy on the basis of large-scale transition to the use of technologies of the fourth industrial revolution, shaping new markets and opens up prospects for sustainable economic growth. It is in the scientific and technological sphere that the competition between countries is shifting. Russia remains nearly invisible player in this field. The author tried to consider the main reasons for such a lag and identify a set of measures of state scientific and technological policy that can give the necessary impetus to the scientific and technological development of Russia.


2006 ◽  
Vol 34 (4) ◽  
pp. 658-666 ◽  
Author(s):  
Fabrice Jotterand

Nanotechnology represents, in part, a technological revolution in the sense that it allows highly innovative applications of various areas of the physical and life sciences. The development of nanotechnology and nanoscience, however, intensifies challenges to the traditional understanding of how to pursue scientific and technological knowledge. Science (in its broad meaning) can no longer be construed simply as the ideal of the quest for truth (i.e., “pure science”). Science, through its technological applications, has become the source of economic power and, by extension, political power. Science, with its political implications, has entered what John Ziman calls the era of “post-academic science.”In this paper, I argue that nanotechnology is a cardinal exemplar of this politicization, that is, the convergence of science, technology, politics, and economics for social and governmental purposes. At the same time, I assert that this new scientific ethos offers the possibility of a better integration of ethical and philosophical reflections at the core of scientific and technological development.


Tendencias ◽  
2021 ◽  
Vol 22 (2) ◽  
pp. 264-287
Author(s):  
Martha Liliana Torres-Barreto ◽  
Yojan Sebastián Medina Charry ◽  
Mileidy Alvarez-Melgarejo

Considering that innovation plays a relevant role in the current business environment, this article investigates the effect of public funding invested in science, technology, and innovation on obtaining innovative results in industrial companies in Colombia. To achieve this purpose, we proposed three hypotheses; the first one is oriented to know if the probability of obtaining innovative results increase when companies receive Public funding for research and development activities, the second one verifies if the probability of obtaining innovative results depends on the qualifications of the human capital. The third one checks out if the probability of obtaining innovative results increases when companies have relationships with their environment institutions. The data from 1989 industrial companies was obtained from the VII Technological Development and Innovation Survey and was analyzed using a logistic regression model that seeks to predict the outcome of a categorical variable from independent variables. The results respond to the hypotheses put forth, indicating positive and significant effects of public aid for R&D in obtaining innovative results and a moderating effect of the qualification of human capital and companies' ability to interact with the different actors within their environment.


2020 ◽  
Vol 144 ◽  
pp. 24-33
Author(s):  
Sergey I. Dovguchits ◽  
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Sergey S. Golubev ◽  

The paper presents the results of determining the priority directions of development of science, technologies and technics in interests of defence and state security, based on open sources of information, methods and tools of forecasting of development of science, equipment and technologies used in the formation of promising scientific and technological directions of development of military-industrial complex (defense industry). The authors analyze documents that determine the priorities of scientific and technological development of the Russian Federation, show the criteria for selecting a list of strategic priority areas for the development of science, technology and technology, and consider the methodology for substantiating promising areas of scientific and technological development of the defense industry. The paper shows that scientific and technical forecasting is an integral part of the formation of policy in the field of defense and security of the state. They are formed in close connection with critical technologies approved by the President of the Russian Federation. The authors reveal in detail the key trends in the development of science, technology and engineering that ensure the formation of the scientific and technological Foundation for the creation of promising samples of VVST.


2018 ◽  
Vol 5 (4) ◽  
pp. 33-60
Author(s):  
V. Kiselev ◽  
E. Nechaeva

The viewpoint of most countries towards participation in programs and projects of international science and technology cooperation (ISTC) is based on the fact that collaboration in research and development allows them to increase the efficiency of national research systems and accelerate the inflow of new knowledge and technologies. The BRICS countries share this viewpoint; however, their aspirations go further, extending their concerns and expectations to cooperation in the sphere of innovation. BRICS – the association of Brazil, Russia, India, China and South Africa – was established in June 2006 at the St. Petersburg economic forum (South Africa a participant since 2011). Its results in establishing frameworks for cooperation in many sectors of their economies including science, technology and innovation demonstrate an unusually rapid growth. The BRICS countries’ cooperation in science, technology and innovation started in 2014; since then, the five countries have carried out important steps in bringing together their practical approaches to science, technology and innovation cooperation.This article is devoted to an analysis of the dynamics of the BRICS countries’ cooperation in science, technology and innovation, and the possible risks and problems in the organization and implementation of joint projects. The need to go further in elaborating legal frameworks for international science, technology and innovation cooperation that would support the transition of their cooperation activities from science and technology to innovation is underlined.


2020 ◽  
pp. 156-162
Author(s):  
ELENE PITSKHELAURI

The paper explores the development of science, technology and innovation in Georgia over the last decade, reveals main tendencies, strengths and weaknesses. In a modern world, complex indexes are effectively utilized in order to evaluate the development of ST&I, perform a comparative analysis and ranking countries. This itself supports the definition of economic strategies in the countries for increasing the productivity and long-term development. The goal of study was to evaluate the tendencies of ST&I in Georgia for the time period of 2009-2019. A comparative analysis of progress has been carried out using Global Index of Innovation (GII) and the Global Competitiveness Index. According to the Global Innovation Index, the position of Georgia has significantly improved during the last 10 years and especially in the past 2 years. In comparison to 2015, Georgia improved its position in world ranking by 25 positions and by 50 positions - in comparison to 2009. In the report 2019 of Georgia›s Innovation and Technology Agency, it is highlighted that Georgia is innovatively better in comparison to its GDP (Cornell University & INSEAD & WIPO, 2019: 20). Georgia has the highest ranking in the following pillars of the index: institutional structure ( score – 74,3 and ranking -26) and market sophistication (score – 62.1 and ranking -15). In other pillars the country ranking range varies between 58-72 and score between 22.5-44.7. During 2011-2019, among all pillars of the index the following areas reached the highest scores in 2019: institutions, infrastructure and market sophistication. During the last decade all pillars of the index are progressing except knolwedge and technology outputs. In these the position and rating of Georgia has even become worse; in comparison to 2011 the ranking of Georgia in this group dropped and went down 25 positions. In 2019 Georgia’s Innovation and Technology Agency defined the strongest 10 indicators out of 98 indicators of sub-pillars; among these there are categories where Georgia has not progressed during 2011-2019. These are: Human resources and research, knowledge and technology and creative outputs. However, it has to be mentioned that the following sub-pillars are considered as the weakness of Georgia and consequently have a lower rating: ecological sustainability (score 91), knowledge diffusion (score 86), knowledge workers (score 81), trade, competition and market scale (score 79), knowledge absorbation (78), research and development (75) (Cornell University, INSEAD, and WIPO, 2019: 258). According to Global Competitiveness Index and similar to Global Innovation Index the position of Georgia during 2009-2018 has significantly improved. In comparison to 2009, Georgia went up 24 positions. The data show that the group of innovation capability is the greatest challenge for achieving a high score on a global scale. Despite the fact that GII in Georgia is characterized by improving tendency during 2009-2019, the analysis of indexes confirms that the hindering factors for achieving high score on a global scale and becoming a competitive country for Georgia are: knowledge and technology, research and development, creativity and innovation capabilities; this reconfirms that the development of science, technology and innovation remains one of the major challenges for Georgia.


2018 ◽  
Vol 3 (1) ◽  
Author(s):  
G.D. Sandhya

<p>A large number of developed and emerging economies have introduced S&amp;T reforms and some of them such as Japan, South Korea and later China have used them for gaining competitive advantage in science, technology and innovation through well crafted S&amp;T policies and appropriate strategies. So far, India has pronounced four major S&amp;T policies beginning with the Science Policy Resolution (SPR) in 1958, Technology Policy in 1983; S&amp;T Policy in 2003 and Science Technology and Innovation Policy in 2013. In a period of six decades India has created a huge S&amp;T infrastructure and made impressive achievements in space, defence and atomic energy, yet the feat is not as impressive in the industrial sector. In innovation competitiveness, R&amp;D and human resource, the indices related to global manufacturing, competition, innovation and knowledge, India has not performed as well in comparison to other BRICS countries. In this paper an attempt has been made to look at, how comprehensive India’s STI policies with regard to policy components; a roadmap; strategies for execution and boldness in terms of identifying and recognising the failures and recommend major structural changes. What is intended is to understand the relationship between the domain of S&amp;T policy and intended outcomes; the mismatch between the policy expectations and outcomes. An attempt is being made to identify possibility for correction  by taking lessons from other economies, such as China.</p><p> </p><p><strong>Keywords</strong>:   S&amp;T policies, Innovation policies, Innovation ecosystem</p>


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