(2019)
(2019)
(2019)
(2019)
(2019)
(2019)
(2019)
(2019)
(2019)
(2018)
(2018)
(2018)
(2018)
(2018)
(2018)
(2018)
(2018)
(2018)
(2018)
(2017)
(2017)
(2017)
(2017)
(2017)
(2017)
(2017)
(2017)
(2017)
(2017)
(2016)
(2016)
Special Issue - (2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2016)
(2015)
(2015)
Special Issue - (2015)
(2015)
(2015)
(2015)
(2012)
(2012)
(2012)
Special Issue - (2012)
pp. 8303-8310 | Article Number: ijese.2016.628
Published Online: October 04, 2016
Abstract
The relevance of the problem subject to the research is conditioned by need for introduction of modern technologies into the educational process and insufficient adaptation of the higher school teachers to the applied information and automated procedures in education and science. The purpose of the publication consists in the analysis of automated procedures efficiency in engineering training and development of structurally functional model of information skills for students and teachers during their teaching in welding and allied technologies. The leading approach to research of this problem is the structurally functional method of the objects studying. This method based on representation of technological structure as hierarchical sequence of the interconnected devices and division of a matter into objects and means of influence that allows to allocate the processes providing functioning between means of influence. In the publication the structurally functional models of information skills formation for students and teachers in engineering and natural-science training are presented. The materials of the publication can be useful for students and teachers at studying of welding and allied technologies and development of scientifically-methodical maintenance for engineering and natural-science disciplines.
Keywords: Designing, model, information, automation, plasmatron
References
Anakhov, S. V. & Pyckin, Yu. А. (2012). Plasma torches: the problem of acoustic safety. Thermophysical and gas dynamic principles of design of low noise plasma torches. Ekaterinburg: RIO UrO Russian Academy of Sciences, 224 p.
Anakhov, S. V. (2014). Principles and methods of design in electric plasma and welding technologies. Ekaterinburg: Publishing house of the Russian State Vocational Professional University, 144 p.
Cherednichenko, V. S., Anshackov, A. S. & Kuzmin, M. G. (2011). Plasma electrotechnic installations. Novosibirsk: Publishing house of Novosibirsk state technical university, 602 p.
Gapontseva, M. G., Gapontsev, V. L., Tkachenko, E. V. & Fedorov, V. A. (2001). "Natural science" as the integrating factor of continuous education. The Education and science journal, 3, 3-18.
Kaydalov, А. А. (2007). Modern technologies of thermal and remote cutting of constructional materials. Kiev: Ecotechnology, 456 p.
Kotlyarova, I. O. (2015). University teachers’ readiness to apply the modern educational technologies. The Education and science journal, 1, 103-114.
Kurnaev, V. А. (2008). Plasma-XXI century. Moscow: Publishing house the Moscow engineering-physical institute, 80 p.
Lisovsky, S. М. (2006). System integrator designing of electric plasma technologies and equipment (Doctoral dissertation).Saratov state technical university, Saratov, 405 p.
Orlov, P. I. (1988). Foundations of designing. Moscow: Mashinostroeniye, 560 p.
Orlov, V. А. & Dorozhkin, S. V. (2005). Plasma - the fourth condition of matter. Moscow: Laboratory of knowledge, 144 p.
Zakirova, V. G. & Shilova, Z. V. (2016). Integrative Connection of Mathematics and Economics. IEJME-Mathematics Education, 11(8), 3021-3036.
Zhukov, M. F., Zasipkin, I. M., Timoshevsky, A. N., Mikhailov, B. I. & Desyatkov, G. A. (1999). Electricarc generators of thermal plasma. Novosibirsk: Nauka, 712 p.
Zhuravlyov, V. F. & Shevchenko, V. Ya. (2007) Structurally functional method of technical objects and researches studying. Ekaterinburg: Publishing House of the Russian State Vocational Pedagogical University, 90 p.