pp. 2163-2177 | Article Number: iejme.2016.190
Published Online: September 01, 2016
Article Views: 204 | Article Download: 227
The article considered the problem of studying applied questions related to “Electrodynamics” course at high school. Teaching the elective course on electronic automatic equipment is provided with regard to the implementation of polytechnic principle. The elective course implies discussion of questions related to the physics of bipolar devices and main carrier devices, and the physics of tunnel effect devices. The considered topics cover automatic regulators, elements of automatic devices, semiconductor diodes, thermistors, transistors, semiconductor triodes trigger, logical elements of digital devices. The study highlighted the problem of wide polytechnic concept development in students. The authors discussed possible introduction of laboratory classes aimed at the development of general concepts related to the structure and the content of modern applied knowledge in students. The offered syllabus of the elective course is intended for fixing and broadening theoretical knowledge, acquaintance with modern technological processes and automated processing equipment for production of integrated electronics and automatic equipment products.
Keywords: Applied knowledge and abilities; elective course; electrodynamics electronic automatic equipment; production automation; semiconductor devices
Altshuler, Y. B. & Chervova, A. A. (2008) The Pedagogical System Model of Teaching Electrodynamics at Schools. Science and School, 3, 15–17.
Ansbacher, T. (2000) An Interview with John Dewey on Science. The Physics Teacher, 38, 224–227.
Atutov, P. R. (1986) Polytechnic education of pupils: Rapprochement of general educational and professional schools. Moscow: Pedagogics. 190p.
Baily, C., Dubson, M., Pollock, S. L. (2013) Research-Based Course Materials and Assessments for Upper-Division Electrodynamics (E&M II). In A. Rebello, S., Engelhardt, & P., Churukian (Ed.), Physics Education Research Conference Proceedings, (pp. 22-36). Melville: AIP Press.
Bennett, J. (2003) Teaching and learning science: A guide to recent research and its applications. London: Continuum. 114p.
Chirkov, A. Y. (2006) Contemporary Elements of Educational Physics for Formation of the Fundamental Notion of Relativity of Mechanical Movement: PhD thesis. Glazov State Pedagogical University. Glazov. 211p.
Dobson, K., Dobson, J. & Roberts, M. (2001) Holt Science Spectrum: A Balanced Approach. New York: Holt, Rinehart and Winston. 725p.
Dyakova, Y. A. (2003) Generalization of Pupils’ Knowledge in Physics in Senior Classes of Secondary School: PhD Thesis. Moscow. 230p.
Hestenes, D. (1997) Modeling Methodology for Physics Teachers. In J. Redish, & E., Rigden (Ed.), The changing role of the physics department in modern universities. Proceedings of ICUPE (pp. 935–957). College Park, American Institute of Physics.
Imashev, G. (2012) Problems of the development of polytechnic education in conditions of modernization of teaching physics. Middle East Journal of Scientific Research, 10, 1328–1330.
Imashev, G., Barsay, B., Abykanova, B., Kuanbaeva, B., Bekova, G., & Shimakova, Z. (2014) Variable component of a course of electrodynamics. Life Sci J, 11(7s), 286–289.
Kamenetskii, S. E. (2000) Theory and methods of teaching physics at school. Мoscow: Аcademy. 186p.
Levinshtein, M., Kostamovaara, J. & Vainshtein, S. (2005) Breakdown Phenomena in Semiconductors and Semiconductor Devices. Intern. Journ. of High Speed Electron. and Systems, 14(4), 921-1114.
Mayer, V. V., & Mayer, R. V. (2006) Electricity: Educational Experimental Proofs. Moscow: FIZMATLIT, 232 p.
Mkrttchian, V. & Stephanova, G. (2013) Training of Avatar Moderator in Sliding Mode Control. In Eby, G., & Vokan Yuzer, T. (Eds). Project Management Approaches for Online Learning Design (pp. 175–203). Hershey: IGI Global.
Nikishina, A. L. (1998) Methodical possibilities of increasing the efficiency of electrodynamics teaching in vocational school. PhD Thesis. Samara State pedagogycal University, Samara. 158p.
Ross, J. A. & Gray, P. (2006) Transformational leadership and teacher commitment to organizational values: The mediating effects of collective teacher efficacy. School Effectiveness and School Improvement, 17(2), 179–199.
Rudolph, M., Fager, C. & Root, D. E. (2012). Nonlinear Transistor Model Parameter Extraction Techniques. Cambridge: Cambridge University Press. 352p.
Savelsbergh, E. R., de Jong, T., & Ferguson-Hessler, M. G. (2002). Situational knowledge in physics: The case of electrodynamics. Journal of Research in Science Teaching, 39(10), 928–951.
Schunk, H., & Pajares, F. (2002). The development of academic self-efficacy. In J. Wigfield & A., Eccles (Ed.), Development of achievement motivation (pp. 16–31). San Diego: Academic Press.
Tseitlin, M. & Galili, I. (2005). Physics Teaching in the Search for Itself. Science & Education, 14(3-5), 235–261.