Provide a model for measuring and increasing the effectiveness of learning in virtual (electronic) education systems

Authors

DOI:

https://doi.org/10.22633/rpge.v25iesp.6.16123

Keywords:

E-learning, Traditional systems, Education, E-learning systems

Abstract

The main purpose of virtual or e-learning systems, like traditional systems based on physical presence, is to transfer maximum concepts from published sources, especially from the teacher, to the recipient of knowledge. Improvement in this process is possible only if the achievement of the goal, or in other words, the effectiveness of the knowledge transfer process, is measured appropriately and validly. Although different models have been proposed to measure the effectiveness of education in traditional systems, new and virtual education systems have fundamental differences with previous types that make the use of those models inappropriate. In this paper, considering the specific features of e-learning systems, a model for measuring their effectiveness has been developed, emphasizing measuring learning rather than measuring education. In this model, the factors affecting learning in e-learning systems are identified, and a preliminary equation is derived to determine their relationship.

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Author Biographies

Dmitry M. Benin, FSBI HE RSAU-Moscow Agricultural Academy named after K.A. Timiryazev, Moscow – Russia

PhD in engineering, Associate Professor, Acting Director of the Institute of Melioration, Water Management and Construction named after A.N. Kostyakov.

Pavel A. Mikheev, RSAU - Moscow Agricultural Academy named after K.A. Timiryazev, Moscow – Russia

Doctor of engineering, Professor, Head of the Department of Agricultural Construction and Expertise of Real Estate Objects at the Federal State Budgetary Institution of Higher Education.

Vladimir P. Borovskoy, FSBEI HE Donskoy SAU, Russia

PhD in engineering, Associate Professor, Associate Professor of the Department of Water Supply and Use of Water Resources, Novoсherkassk Engineering and Reclamation Institute named after A.K. Kortunov.

References

BOROVSKOY, V. P. Inlet portals of fish passages and fish passage-spawning canals. Abstract from the thesis by PhD in engineering. - Novocherkassk, 1990. 28 p.

BOROVSKOY, V. P.; TERNOVOY, A. N. Optimization of the entrance part of the gravity fish outlet of the fish protection structure of the water intake. Melioration as a driver of AIC modernization in the context of climate change. In: INTERN. SCIENTIFIC-PRACTICAL INTERNET CONFERENCE, 2., 2021, Novocherkassk. Proceedings […]. Novocherkassk: Lik, 2021.

CHUGAEV, R. R. Hydraulic engineering structures. Spillway dams. Textbook for universities. Moscow: High school, 1978. 352 p.

LARINIER, M.; TRAVADE, F. The development and evaluation of downstream bypasses for juvenile salmonids at small hydroelectric plants in France. In: ODEH, M. Innovations in fish passage technology. American Fisheries Society, 1999. p. 25-42.

LOYTSYANSKY, L. G. Mechanics of liquid and gas. Textbook for universities. 6. ed. rev. and add. Moscow: Nauka, 1987. 840 p.

MIKHEEV, P. A.; BOROVSKOY, V. P. Theoretical substantiation of vortex structure parameters of free turbulence (Novocherkassk engineer-melior. institute named after A.K. Kortunov, Novocherkassk, Rostov region). In: Results of Science. Selected Proceedings of the All-Russian Conference on Science and Technology. Moscow: RAS, 2015. n. 18, 231 p.

MIKHEEV, P. A.; PERELYGIN, A. I. Assessment of the fish protection structure state of the Donskoy main channel for the purpose of reconstruction. Hydrotechnical construction, n. 9. p. 41-44, 2007.

MIKHEEV, P. A.; PERELYGIN, A. I. Fish outlets of hydraulic structures. Rostov on Don: Phoenix; Novocherkassk FGBEI HPE NSMA, 2014. 265 p.

MIKHEEV, P. A.; SHKURA, V. N.; LYAPOTA, T. L. Diversion of juvenile fish at the fish protection structure of the water intake of the Novocherkasskaya SDPP. Protection and restoration of hydroflora and ichthyofauna. Proceedings of AVN, Novocherkassk, n. 1, p. 89-93, 1997.

PATRASHEV, A. N. Hydromechanics. Moscow: Naval publishing house, 1953. 720 p.

PAVLOV, D. S.; PAKHORUKOV A. M. Biological bases of fish protection from falling into water intake facilities. 2. ed. rev. and add. Moscow: Light and food industry, 1983. 264 p.

PRANDTL, L. Hydroaeromechanics. Izhevsk: Research Center "Regular and Chaotic Dynamics", 2000. 576 p.

PROTECTED fish diversion systems from fish protection devices. Melioration and water management. TsBNTI of the USSR Ministry of Water Resources, n. 18, p. 9-15, 1986.

SAMOILOVICH, G. S. Hydrogasdynamics: A textbook for university students studying the profession of "Turbo building". 2. ed. rev. and add. Moscow: Mashinostroenie, 1990. 384 p.

SCHLICHTING, G. The boundary layer theory. Edited by L.G. Loytsyansky. Moscow: Nauka, 1969. 742 p.

SP101.1333.2012 Retaining walls, navigational locks, fish passages and fish protection structures. Updated edition of SNiP 2.06.07-87. rev. Moscow, 2012. Rev. n. 1.

UNITED STATES. Department of the Interior. Fish Protection at Water Diversions. A Guide for Planning and Designing Fish Exclusion Facilities. Denver, Colorado, 2006. 429 p.

ZAMARIN, E. A.; FANDEEV, V. V. Hydraulic engineering structures. Moscow: Kolos, 1965. 618 p.

Published

30/12/2021

How to Cite

BENIN, D. M.; MIKHEEV, P. A.; BOROVSKOY, V. P. Provide a model for measuring and increasing the effectiveness of learning in virtual (electronic) education systems. Revista on line de Política e Gestão Educacional, Araraquara, v. 25, n. esp.6, p. 3622–3636, 2021. DOI: 10.22633/rpge.v25iesp.6.16123. Disponível em: https://periodicos.fclar.unesp.br/rpge/article/view/16123. Acesso em: 30 dec. 2024.

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