Implementation of 3D-laboratory workshops web applications for technical specialties
https://doi.org/10.32517/0234-0453-2023-38-3-78-87
Abstract
The use of virtual laboratory classes in teaching allows the reproduction of online laboratory workshop that require expensive materials or tools, as well as making the learning process interactive and remote. The use of modern web technologies makes it possible to bypass compatibility problems on users’ computers and perform laboratory classes remotely online.
The purpose of this research is to develop computer virtual 3D-laboratory class and web-access simulators for disciplines taught at the Reshetnev Siberian State University of Science and Technology (SibGU).
The analysis of the current state in the field of virtual laboratory development carried out by the authors allowed us to conclude that it is impossible to use ready-made solutions. The choice of tools for the development of their own software products was made, the disciplines for the implementation of 3D-laboratory classes were selected, technical specifications were developed, methods of user interaction with objects and objects interaction with each other were developed, 3D-models needed for the visualization of laboratory work were created.
The final result of the research is software products — virtual 3D-laboratory workshops for students of technical specialties, implemented with a similar set of software solutions, hosted on the SibGU server. The software products were tested by students in real classes and then the created applications were implemented in the electronic training modules of the university.
The developed computer implementations of laboratory workshops are not only successfully used in the educational process of SibGU, but also allow to solve the problem of conducting laboratory classes in the forced distance form of education, as well as help to compensate for the lack of necessary equipment.
Application of virtual laboratory classes helps to engage students in learning and improve their digital literacy.
About the Authors
T. N. IvanilovaRussian Federation
Tatiana N. Ivanilova, Candidate of Sciences (Engineering), Docent, Head of the Department of Information and Communication Technologies in Education
Krasnoyarsk
A. V. Kushnerov
Russian Federation
Alexey V. Kushnerov, Head of the Multimedia Educational Content Development Sector, Electronic Educational Resources Development Department, Department of Information and Communication Technologies in Education
Krasnoyarsk
V. A. Semenov
Russian Federation
Viktor A. Semenov, Head of the Electronic Educational Resources Development Department, Department of Information and Communication Technologies in Education
Krasnoyarsk
I. A. Ilyushin
Russian Federation
Ilya A. Ilyushin, a 4th year student at the Department of Information and Control Systems, Institute of Informatics and Telecommunications
Krasnoyarsk
A. V. Seregin
Russian Federation
Alexander V. Seregin, a 4th year student at the Department of Information and Control Systems, Institute of Informatics and Telecommunications
Krasnoyarsk
References
1. Devyatkin E. M., Khasanova S. L., Chiganova N. V. Virtual interactive laboratory setting on physics. Modern Problems of Science and Education. 2016;(4):161. (In Russian.) EDN: WIQDHN
2. Gavronskaya Yu.Yu., Oksenchuk V.V. The technique of creation of virtual laboratory works in chemistry. Modern Problems of Science and Education. 2015;(2(2)):360. (In Russian.) EDN: UZJDDJ
3. Ushakova N. Yu., Bykovskaya L. V. On the practice of using specialized cloud web applications in electrical engineering disciplines. Modern Problems of Science and Education. 2021;(3):84. (In Russian.) EDN: UDUGMH. DOI: 10.17513/spno.30927
4. Shaposhnikova T. L., Rykova E. V. Virtual laboratory practice in the structure of the computer-aided educational technologies. Uchenye Zapiski Universiteta Imeni P. F. Lesgafta. 2014;(12(118)):218–222. (In Russian.) EDN: TFDRIH. DOI: 10.5930/issn.1994-4683.2014.12.118.p218-222
5. Gubsky E. G. Virtual laboratory work in physics in the system of distance learning. Modern Problems of Science and Education. 2009;(1):56–57. (In Russian.) EDN: KWHHYT
6. Aljuhani K., Sonbul M., Althabiti M., Meccawy M. Creating a Virtual Science Lab (VSL): The adoption of virtual labs in Saudi schools. Smart Learning Environments. 2018;(5):16. DOI: 10.1186/s40561-018-0067-9
7. Trukhin A. V. On the use of virtual laboratories in education. Open and Distance Education. 2002;(4(8)):81–82. (In Russian.) EDN: MLTRIH
8. Belov V. V., Obraztsov I. V., Ivanov V. K., Konoplev Е. N. Computer implementation of solving scientific, technical and educational problems: textbook. Tver, TvSTU; 2015. 102 p. (In Russian.) EDN: VMAASD
9. Anoshina O. V., Shumikhina K. A. Advantages of using a virtual physical labs in a pandemic. Modern Problem of Science and Education. 2021;(3):101. (In Russian.) EDN: ZNXLYV. DOI: 10.17513/spno.30955
10. Laptenkov B. K., Tikhomirov Yu. V. The experience of organization of virtual laboratory practical works on physics. Physics in Higher Education. 2005;11(2):90–101. (In Russian.) EDN: HTLVZB
11. Grinberg G. M., Romanov D. V. Interactive computer model of the step engine. Reshetnev readings. Proc. XIV Int. Scientific and Practical Conf., Dedicated to the Memory of the General Designer of Rocket and Space Systems Academician M. F. Reshetnev. 2010;2:485–486. (In Russian.) EDN: UNKKSN
12. Ushakova N. Y., Bykovskaya L. V. On the practice of using specialized cloud web applications in electrical engineering disciplines. Modern Problem of Science and Education. 2021;(3):1–8. (In Russian.) EDN: UDUGMH. DOI: 10.17513/spno.30927
13. Grinberg G. M., Romanov D. V. Organization of the laboratory workshop using IT and communication technologies. Reshetnev readings. Proc. XVIII Int. Scientific and Practical Conf., Dedicated to the Memory of the General Designer of Rocket and Space Systems Academician M. F. Reshetnev. 2014;3:290–295. (In Russian.) EDN: PBJQBN
14. Solovov A.V., Mishchuk V.T. Intellectual simulators and virtual laboratories: textbook. Samara, SSAU; 2007. 59 p. (In Russian.) EDN: QMFOYN
15. Sa.tsuk M. M., Artyshko A. A., Mironov D. E., Kudryavtseva O. A., Ivanilova T. N. Development of training software for laboratory work on the discipline “Physics”. Reshetnev readings. Proc. XXIII Int. Scientific and Practical Conf., Dedicated to the Memory of the General Designer of Rocket and Space Systems Academician M. F. Reshetnev. 2019;2:383–385. (In Russian.) EDN: LUZUQJ
16. Blinov S. N., Ivanilova T. N., Kudryavtseva O. A. Educational software “Virtual laboratory works on the course of ‘Physics’ for engineering students”. Open and Distance Education. 2019;(1(73)):46–52. (In Russian.) EDN: ZCDAQP. DOI: 10.17223/16095944/73/6
17. Govorov A. I., Govorova M. M., Shikov A.N. Functional features of development of a virtual laboratory workshop on computer networks. RUDN Journal of Informatization in Education. 2015;(4):42–53. (In Russian.) EDN: VBJNMD
18. Coates J. Generations and learning styles: a monograph. Moscow, MAPDO; 2011. 121 p (In Russian.) EDN: QYMQVZ
19. Waldrop M. M. Education online: The virtual lab. Nature. 2013;499:268–270. DOI: 10.1038/499268a
20. Vyazankova V. V., Romanova M. L. In formatization of education as the factor of students’ information competence formation. Open and Distance Education. 2014;(1(53)):54–59. (In Russian.) EDN: SAHMZH
Review
For citations:
Ivanilova T.N., Kushnerov A.V., Semenov V.A., Ilyushin I.A., Seregin A.V. Implementation of 3D-laboratory workshops web applications for technical specialties. Informatics and education. 2023;38(3):78-87. (In Russ.) https://doi.org/10.32517/0234-0453-2023-38-3-78-87