Experimental competence formation in chemistry teacher training

Issue 56, 2024

Altynkul Toibazarova, Nurbol Appazov, Zhanar Kuanysheva, Klara Darmagambet, Gulzhan Balykbayeva

Received 19.12.2023, Revised 12.03.2024, Accepted 06.04.2024

https://doi.org/10.54919/physics/56.2024.131qo6

Abstract

Relevance. The research relevance is determined by the need to adapt the educational system to the rapidly changing requirements of the labour market and technological progress.

Purpose. The study aims to evaluate the effectiveness of analytical chemistry training programmes in leading universities of Kazakhstan from the point of view of developing the scientific competence of students necessary for employment.

Methodology. The study employs comparative, qualitative, and statistical analyses, questionnaires, surveys and observation.

Results. The study examines the role of universities in training analytical specialists. The requirements of the labour market and academic institutions for candidates for positions in analytical chemistry, as well as the current state of research and development in training, were considered. The findings showed that many university graduates trained in analytical chemistry prefer not to go to work in industry or factory laboratories, but plan to stay in academia and continue their research. This indicates the need to revise curricula to better meet the requirements of the labour market and academic institutions. Problems and gaps in current programmes and methods of teaching analytical chemistry at universities in Kazakhstan have been identified. Approaches to strengthening the practical component of courses have been critically analysed, considering the current requirements and assessments of industry specialists.

Conclusions. The study highlighted the high demand for qualified specialists, emphasizing that the issue lies not in the shortage of vacancies but in the level of training. The practical significance of the study lies in the fact that its results can be used to modernise the system of education in the field of analytical chemistry and improve curricula and teaching methods. This, in turn, will help to improve the quality of training of analytical chemists who will be able to meet the needs of the labour market and scientific institutions.

Keywords: active learning; analysis methodology; students; specialist qualifications; researchers

Suggested citation

Toibazarova A, Appazov A, Kuanysheva Z, Darmagambet K, Balykbayeva G. Experimental competence formation in chemistry teacher training. Sci Herald Uzhhorod Univ Ser Phys. 2024;(56):1316-1325. DOI: 10.54919/physics/56.2024.131qo6

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References

  1. Abyzbekova G, Zholdasbayeva Z, Tapalova A, Yespenbetova S, Balykbayeva G, Arynova K. The effectiveness of the competence approach in the training of chemistry teachers. J Chem Edu. 2023;100(9):3484-3493.
  2. Amirova A, Iskakovna JM, Zakaryanovna TG, Nurmakhanovna ZT, Elmira U. Creative and research competence as a factor of professional training of future teachers: Perspective of learning technology. World J Edu Technol Curr Issues. 2020;12(4):278-289.
  3. Nechypurenko P, Semerikov S. Developing research competencies in high school students through specialized chemistry education: A computer-based approach. In: S. Semerikov, V. Osadchyi, O. Kuzminska (Eds.), Proceedings of the 2nd Myroslav I. Zhaldak Symposium on Advances in Educational Technology (pp. 835-849). Kyiv: University of Educational Management; 2021.
  4. Kopishev EE, Syzdykov AT. Virtual chemistry laboratories for the undergraduate students of Kazakhstan. Bull PSU. 2018;2:226-235.
  5. Sailaubay AK, Myrzakhmetova NO, Kishibayev KO. The role of chemical experiment in the development of students’ research competencies. Bull Kaz Ablai Khan Uni Int Relat World Lang. 2023;69(2):230-245.
  6. Almesh D, Meirmanova A. Teaching chemistry in universities: A modern approach. J Uni Teach Learn Pract. 2023;20(6):11.
  7. Boesdorfer SB, Livermore RA. Secondary school chemistry teacher’s current use of laboratory activities and the impact of expense on their laboratory choices. Chem Edu Res Pract. 2018;19(1):135-148.
  8. Batsurovska I, Dotsenko N. Formation of professional competencies in the study of biophysics in bachelor students of technological specialities in the context of distance learning. Sci Bull Mukach State Uni Ser Ped Psychol. 2022;8(4):59-65.
  9. Camel V, Maillard M-N, Piard J, Dumas C, Cladière M, Fitoussi G, Brun E, Billault I, Sicard-Roselli C. CHIMACTIV: An open-access website for student-centered learning in analytical chemistry. J Chem Edu. 2020;97(8):2319-2326.
  10. Theobald EJ, Hill MJ, Tran E, Agrawal S, Arroyo EN, Behling S, Chambwe N, Cintrón DL, Cooper JD, Dunster G, Grummer JA, Hennessey K, Hsiao J, Iranon N, Jones L, Jordt H, Keller M, Lacey ME, Littlefield CE, Lowe A, Newman S, Olkolo V, Olroyd S, Peecook BR, Pickett SB, Slager DL, Caviedes-Solis IW, Stanchak KE, Sundaravardan V, Valdebenito C, Williams CR, Zinsil K, Freeman S. Active learning narrows achievement gaps for underrepresented students in undergraduate science, technology, engineering, and math. Proc Nat Acad Sci. 2020;117(12):6476-6483.
  11. Bergquist J, Emmer Å, Farbrot A, Turner C. Research and education in Analytical Chemistry – Industrial and academic perspectives from a survey conducted in Sweden. Anal Bioanal Chem. 2023;415(12):2151-2161.
  12. Achkinadze O, Polomar S, Pytte D, Sandberg F. Organisation of independent cognitive activity of students of a specialised school in a chemistry subject based on the project method. Sci Bull Mukach State Uni Ser Ped Psychol. 2022;8(3):9-15.
  13. Furlong WR, Rubinski MA, Indralingam R. The method of continuous variation: A laboratory investigation of the formula of a precipitate. J Chem Edu. 2013;90(7):937-940.
  14. Avsec S, Jagiełło-Kowalczyk M, Żabicka A, Gawlak A, Gil-Mastalerczyk J. Leveraging systems thinking, engagement, and digital competencies to enhance first-year architecture students’ achievement in design-based learning. Sustainability. 2023;15(20):15115.
  15. Juniar A, Silalahi A, Suyanti RD. The effect of teacher candidates’ science process skill on analytical chemistry through guided inquiry learning model. J Phys Conf Ser. 2021;1842(1):012066.
  16. Pakpahan DN, Situmorang M, Sitorus M, Silaban S. The development of project-based innovative learning resources for teaching organic analytical chemistry. In: B. Sinaga, R. Husein, J. Rajagukguk (Eds.), Proceedings of the 6th Annual International Seminar on Transformative Education and Educational Leadership (AISTEEL 2021) (pp. 782-788). Dordrecht: Atlantis Press; 2021.
  17. Hernández-Ramos J, Cáceres-Jensen L, Rodríguez-Becerra J. Educational computational chemistry for in-service chemistry teachers: A data mining approach to e-learning environment redesign. Edu Sci. 2023;13(8):796.
  18. Bicak BE, Borchert CE, Höner K. Measuring and fostering preservice chemistry teachers’ scientific reasoning competency. Edu Sci. 2021;11(9):496.
  19. Chan HHS, Meister R, Jones T, Tew DP, Benjamin SC. Grid-based methods for chemistry simulations on a quantum computer. Sci Advan. 2023;9(9):eabo7484.
  20. Bao H, Nai X, Liu J, Liu M, Wei X, Zhang Q. Thermal analysis and transition for the different aggregates in NPTAB-H2O-N-butanol ternary system studied by ITC. J Mol Liq. 2019;296:111772.
  21. Alkan F. Investigation of achievement and mistakes in analytical chemistry experiments. Int J Curr Innov Interdiscip Sci Stud. 2020;7(3):45-52.
  22. Ribeiro MAS, Tonin APP, Poliseli CB, Lima BB, Castro LEN, Silva VM, Valério M, Cedran JC, Meurer EC. Teaching venturi electrospray mass spectrometry with amino acid analysis. Int J Mass Spectrom. 2019;444:116183.
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